Plant oil gland nucleic acid molecules and methods of use

ABSTRACT

In one aspect, the present invention provides nucleic acid molecules that each correspond to all or part of a messenger RNA (mRNA) molecule expressed in plant oil gland cells, such as oil gland secretory cells of essential oil plants. In another aspect, the present invention provides nucleic acid molecules that hybridize to one or more of the peppermint oil gland cDNAs disclosed herein (or to the complement of one or more of the peppermint oil gland cDNAs disclosed herein), under stringent conditions. In another aspect, the present invention provides replicable recombinant cloning vehicles comprising a nucleic acid molecule of the present invention. In yet other aspects of the invention, modified host cells are provided that include a recombinant cloning vehicle and/or nucleic acid molecule of the present invention.

CROSS-REFERENCE TO RELATED APPLICATION

[0001] This application claims the benefit of U.S. Provisional Application No. 60/177,264, filed Jan. 20, 2000.

FIELD OF THE INVENTION

[0002] This invention relates to plant oil glands that produce terpenoid essential oils and resins, to proteins expressed in plant oil gland cells and to nucleic acid molecules that encode proteins expressed in plant oil gland cells.

BACKGROUND OF THE INVENTION

[0003] Plant oil glands are highly specialized anatomical structures that are designed for the production and accumulation of terpenoid essential oils and resins (Fahn, New Phytol. 108:229, 1988). While differing somewhat in structural detail from genera to genera, all oil glands contain one or more secretory cells in which the oil or resin is produced, and incorporate an extracellular cavity into which the essential oil or resin is secreted and stored. Id. Although oil glands conduct some aspects of primary metabolism, typical of other plant cells, they express unique genes involved with the structure and regulated development of the glands themselves, with the biosynthesis of essential oils and resins, with the regulation of these specialized processes, and with the intracellular trafficking of these metabolites and their extracellular secretion to the receptacle adapted for storage of these highly lipophilic products.

[0004] The large number of terpenoids, including monoterpenes, sesquiterpenes and diterpenes, produced by oil glands have a variety of uses. For example, monoterpenes are utilized as flavoring agents in food products, and as scents in perfumes (Arctander, S., in Perfume and Flavor Materials of Natural Origin, Arctander Publications, Elizabeth, N.J.; Bedoukian, P. Z. in Perfumery and Flavoring Materials, 4th edition, Allured Publications, Wheaton, Ill., 1995; Allured, S., in Flavor and Fragrance Materials, Allured Publications, Wheaton, Ill., 1997). Monoterpenes are also used as intermediates in various industrial processes (Dawson, F. A., in The Amazing Terpenes, Naval Stores Rev., March/April, 6-12, 1994). Monoterpenes are also implicated in the natural defense systems of plants against pests and pathogens (Francke, W. in Muller, P. M. and Lamparsky, D., eds., Perfumes: Art, Science and Technology, Elsevier Applied Science, NY, N.Y., pp. 61-99, 1991; Harborne, J. B., in Harborne, J. B. and Tomas-Barberan, F. A., eds., Ecological Chemistry and Biochemistry of Plant Terpenoids, Clarendon Press, Oxford, pp. 399-426, 1991; Gershenzon, J. and Croteau, R. in Rosenthal, G. A. and Berenbaum, M. R., eds., Herbivores: Their Interactions with Secondary Plant Metabolites, Academic Press, San Diego, pp. 168-220, 1991). There is also substantial evidence that monoterpenes are effective in the prevention and treatment of cancer (Elson, C. E. and S. G. Yu, J. Nutr. 124:607-614, 1994).

[0005] Thus, there is a need for compositions and methods that can be used to further investigate, characterize and manipulate the development, physiology and metabolism of plant oil glands. Further, there is a need for nucleic acid sequences that can be used to physically and/or genetically map the locations of genes expressed in plant oil gland cells, especially those genes that are involved with the development and specialized biochemistry of plant oil glands, such as secretory cells. There is also a need for nucleic acid sequences that can be used as probes to isolate full-length, or substantially full-length, cDNA molecules that encode proteins expressed in plant oil gland cells, or that can be used to block the expression of specific messenger RNA molecules expressed in plant oil gland cells, e.g., by antisense suppression.

SUMMARY OF THE INVENTION

[0006] In accordance with the foregoing, cDNA molecules have been synthesized from mRNA isolated from peppermint oil gland cells and sequenced. Thus, in one aspect, the present invention relates to isolated nucleic acid molecules, of at least fifteen nucleotides in length, that correspond to part or all of a messenger RNA (mRNA) molecule expressed in plant oil gland cells, such as oil gland secretory cells of essential oil plants. Representative examples of the nucleic acid molecules of the present invention are set forth in the sequence listing as SEQ ID NOS:1-472. In another aspect, the present invention relates to isolated nucleic acid molecules that include the nucleotide sequence of any one of the nucleic acid molecules set forth in the sequence listing as SEQ ID NOS:1-472. In yet another aspect, the present invention relates to isolated nucleic acid molecules that hybridize under stringent conditions to any one of the nucleic acid molecules set forth in the sequence listing as SEQ ID NOS:1-472, or to the complement of any one of the nucleic acid molecules set forth in the sequence listing as SEQ ID NOS:1-472.

[0007] Thus, in one embodiment, the present invention is directed to isolated nucleic acid molecules that hybridize under stringent conditions to any one of the nucleic acid molecules identified herein as SEQ ID NO:29, SEQ ID NO:17, SEQ ID NO:21, SEQ ID NO:66, SEQ ID NO:60, SEQ ID NO:4, SEQ ID NO:7, SEQ ID NO:8, and SEQ ID NO:9, or to the complement of any one of the nucleic acid molecules identified herein as SEQ ID NO:29, SEQ ID NO:17, SEQ ID NO:21, SEQ ID NO:66, SEQ ID NO:60, SEQ ID NO:4, SEQ ID NO:7, SEQ ID NO:8, and SEQ ID NO:9.

[0008] In another embodiment, the present invention is directed to isolated nucleic acid molecules that hybridize under stringent conditions to any one of the nucleic acid molecules identified herein as SEQ ID NO:10, SEQ ID NO:11, SEQ ID NO:12, SEQ ID NO:13, SEQ ID NO:14, SEQ ID NO:15, and SEQ ID NO:16, or to the complement of any one of the nucleic acid molecules identified herein as SEQ ID NO:10, SEQ ID NO:11, SEQ ID NO:12, SEQ ID NO:13, SEQ ID NO:14, SEQ ID NO:15, and SEQ ID NO:16.

[0009] In yet another embodiment, the present invention is directed to isolated nucleic acid molecules that hybridize under stringent conditions to any one of the nucleic acid molecules identified herein as SEQ ID NO:107, SEQ ID NO:111, SEQ ID NO:102, SEQ ID NO:110, SEQ ID NO:86, SEQ ID NO:76, SEQ ID NO:81, SEQ ID NO:80, SEQ ID NO:95, and SEQ ID NO:97, or to the complement of any one of the nucleic acid molecules identified herein as SEQ ID NO:107, SEQ ID NO:111, SEQ ID NO:102, SEQ ID NO:110, SEQ ID NO:86, SEQ ID NO:76, SEQ ID NO:81, SEQ ID NO:80, SEQ ID NO:95, and SEQ ID NO:97.

[0010] A first group of nucleic acid molecules of the present invention includes cDNA molecules that each encode at least part of a protein that may be involved in the deoxyxylulose-5-phosphate pathway which produces isopentenyl diphosphate (IPP) as the central precursor of terpenoid essential oils. Table 1 identifies representative members of the first group of nucleic acid molecules of the present invention.

[0011] A second group of nucleic acid molecules of the present invention includes cDNA molecules that each encode at least part of a protein that may be involved in terpene metabolism, including, for example, terpene synthases, oxidoreductases, cytochrome P₄₅₀-dependent oxidoreductases, putative acyltransferases and putative glucosyltransferases which are likely involved in secondary transformation reactions leading to the terpenoid end products of mint essential oils. Table 2 identifies representative members of the second group of nucleic acid molecules of the present invention.

[0012] A third group of nucleic acid molecules of the present invention includes DNA sequences that each encode at least part of a transcription factor, or other regulatory protein, that may be involved in the regulation of oil gland development and the control of gene expression in oil gland cells. Table 3 identifies representative members of the third group of nucleic acid molecules of the present invention.

[0013] A fourth group of nucleic acid molecules of the present invention includes DNA sequences that each encode at least part of a protein that may be involved in signal transduction and transport processes occurring during the trafficking and secretion of terpenoid essential oils in oil gland cells. Table 4 identifies representative members of the fourth group of nucleic acid molecules of the present invention.

[0014] A fifth group of nucleic acid molecules of the present invention includes DNA sequences that encode portions of proteins of diverse, putative function. Table 5 identifies representative members of the fifth group of nucleic acid molecules of the present invention.

[0015] In another aspect, the present invention is directed to replicable recombinant cloning vehicles comprising a nucleic acid molecule of the present invention, such as the nucleic acid molecules having the sequences set forth in the sequence listing as SEQ ID NOS:1-472, their complements, or nucleic acid molecules that hybridize (under stringent hybridization conditions) to the nucleic acid molecules having the sequences set forth in the sequence listing as SEQ ID NOS:1-472, or to their complements.

[0016] In yet other aspects of the invention, modified host cells are provided that have been transformed, transfected, infected and/or injected with a recombinant cloning vehicle and/or nucleic acid molecule of the present invention. Thus, by way of non-limiting example, the present invention provides for methods of suppressing gene expression by expressing a cDNA molecule of the present invention, in antisense orientation relative to a promoter sequence, in host cells, such as plant oil gland cells. Again by way of non-limiting example, the present invention provides for methods of enhancing expression of plant oil gland cell proteins by expressing one or more cDNA molecules (that encode proteins normally expressed in plant oil gland cells, such as the secretory cells of oil glands of essential oil plants) of the present invention in a host cell, such as a plant oil gland cell.

[0017] In another aspect, the present invention is directed to isolated proteins (such as isolated proteins encoded by cDNA molecules of the present invention) that are naturally expressed in plant oil gland cells.

[0018] The inventive concepts described herein may be used, for example, to physically and/or genetically map a plant genome (such as the peppermint plant genome), to isolate full-length (or substantially full-length) cDNA molecules encoding proteins expressed in plant oil gland cells, to isolate genes encoding proteins expressed in plant oil gland cells, to suppress the expression of mRNA molecules expressed in plant oil gland cells (for example by antisense suppression), to enhance expression of plant oil gland cell proteins (for example by genetically transforming a plant cell with a replicable expression vector of the present invention that expresses one or more proteins that are naturally expressed in plant oil gland cells), to enhance or suppress terpenoid essential oil and/or resin production in plant oil glands, to express plant oil gland proteins in bacterial and/or yeast cells to produce plant oil gland products (such as terpenoid essential oils and resins), or to otherwise alter the development, physiology and/or biochemistry of plant cells, such as the oil gland cells of essential oil plants.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENT

[0019] As used herein, the terms “amino acid” and “amino acids” refer to all naturally occurring L-α-amino acids or their residues. The amino acids are identified by either the single-letter or three-letter designations: Asp D aspartic acid Ile I isoleucine Thr T threonine Leu L leucine Ser S serine Tyr Y tyrosine Glu E glutamic acid Phe F phenylalanine Pro P proline His H histidine Gly G glycine Lys K lysine Ala A alanine Arg R arginine Cys C cysteine Trp W tryptophan Val V valine Gln Q glutamine Met M methionine Asn N asparagine

[0020] As used herein, the term “nucleotide” means a monomeric unit of DNA or RNA containing a sugar moiety (pentose), a phosphate and a nitrogenous heterocyclic base. The base is linked to the sugar moiety via the glycosidic carbon (1′ carbon of pentose) and that combination of base and sugar is called a nucleoside. The base characterizes the nucleotide with the four bases of DNA being adenine (“A”), guanine (“G”), cytosine (“C”) and thymine (“T”). Inosine (“I”) is a synthetic base that can be used to substitute for any of the four, naturally-occurring bases (A, C, G or T). The four RNA bases are A, G, C and uracil (“U”). The nucleotide sequences described herein comprise a linear array of nucleotides connected by phosphodiester bonds between the 3′ and 5′ carbons of adjacent pentoses. The one letter codes for nucleotide sequences used herein are set forth at page 300 of the present application.

[0021] “Oligonucleotide” refers to short length single or double stranded sequences of deoxyribonucleotides linked via phosphodiester bonds. The oligonucleotides are chemically synthesized by known methods and purified, for example, on polyacrylamide gels.

[0022] The term “hybridize under stringent conditions”, and grammatical equivalents thereof, means that a nucleic acid molecule that has hybridized to a target nucleic acid molecule immobilized on a DNA or RNA blot (such as a Southern blot or Northern blot) remains hybridized to the immobilized target molecule on the blot during washing of the blot under stringent conditions. In this context, exemplary hybridization conditions are: hybridization at 65° C. in 5.0×SSC, 1% sodium dodecyl sulfate, for 16 hours (lower stringency hybridizations preferably utilize 6.0×SSC, 1% sodium dodecyl sulfate, at 20° C. to 30° C. for 16 hours). Exemplary very high stringency conditions for washing DNA or RNA blots are: two washes of fifteen minutes each at 20° C. to 30° C. in 2.0×SSC, followed by two washes of twenty minutes each at 65° C. in 0.5×SSC. Exemplary high stringency conditions for washing DNA or RNA blots are: two washes of twenty minutes each at 20° C. to 30° C. in 2.0×SSC, followed by one wash of thirty minutes at 55° C. in 1.0×SSC. Exemplary moderate stringency conditions for washing DNA or RNA blots are: two washes of twenty minutes each at 20° C. to 30° C. in 3.0×SSC. Preferably, moderate stringency wash conditions are utilized after hybridization in lower stringency hybridization conditions, i.e., 6.0×SSC, 1% sodium dodecyl sulfate, at 20° C. to 30° C. for 16 hours.

[0023] The term “essential oil plant,” or “essential oil plants,” refers to a group of plant species that produce high levels of monoterpenoid and/or sesquiterpenoid and/or diterpenoid oils, and/or high levels of monoterpenoid and/or sesquiterpenoid and/or diterpenoid resins. The foregoing oils and/or resins account for greater than about 0.005% of the fresh weight of an essential oil plant that produces them. The essential oils and/or resins are more fully described, for example, in E. Guenther, The Essential Oils, Vols. I-VI, R. E. Krieger Publishing Co., Huntington N.Y., 1975, incorporated herein by reference. The essential oil plants include, but are not limited to:

[0024] Lamiaceae, including, but not limited to, the following species: Ocimum (basil), Lavandula (Lavender), Origanum (oregano), Mentha (mint), Salvia (sage), Rosmarinus, (rosemary), Thymus (thyme), Satureja (savory), Monarda (balm) and Melissa.

[0025] Umbelliferae, including, but not limited to, the following species: Carum (caraway), Anethum (dill), foeniculum (fennel) and Daucus (carrot).

[0026]Asteraceae (Compositae), including, but not limited to, the following species: Artemisia (tarragon, sage brush), Tanacetum (tansy).

[0027]Rutaceae (e.g., Citrus plants); Rosaceae (e.g., roses); Myrtaceae (e.g., Eucalyptus, Melaleuca); the Gramineae (e.g., Cymbopogon (citronella)); Geranaceae (Geranium) and certain conifers including Abies (e.g., Canadian balsam), Cedrus (cedar), Thuja, Juniperus, Pinus (pines) and Picea (spruces).

[0028] The range of essential oil plants is more fully set forth in E. Guenther, The Essential Oils, Vols. I-VI, R. E. Krieger Publishing Co., Huntington N.Y., 1975, which is incorporated herein by reference.

[0029] The term “angiosperm” refers to a class of plants that produce seeds that are enclosed in an ovary.

[0030] The term “gymnosperm” refers to a class of plants that produce seeds that are not enclosed in an ovary.

[0031] The abbreviation “SSC” refers to a buffer used in nucleic acid hybridization solutions. One liter of the 20×(twenty times concentrate) stock SSC buffer solution (pH 7.0) contains 175.3 g sodium chloride and 88.2 g sodium citrate.

[0032] The terms “alteration”, “amino acid sequence alteration”, “variant” and “amino acid sequence variant” refer to protein molecules with some differences in their amino acid sequences as compared to the corresponding, native, i.e., naturally-occurring, proteins. Ordinarily, the variants will possess at least about 70% identity with the corresponding native proteins, and preferably, they will be at least about 80% identical to the corresponding, native proteins. The amino acid sequence variants falling within this invention possess substitutions, deletions, and/or insertions at certain positions. Sequence variants may be used to attain desired enhanced or reduced enzymatic activity, modified regiochemistry or stereochemistry, or altered substrate utilization or product distribution.

[0033] Substitutional protein variants are those that have at least one amino acid residue in the native protein sequence removed and a different amino acid inserted in its place at the same position. The substitutions may be single, where only one amino acid in the molecule has been substituted, or they may be multiple, where two or more amino acids have been substituted in the same molecule. Substantial changes in the activity of the proteins of the present invention may be obtained by substituting an amino acid with a side chain that is significantly different in charge and/or structure from that of the native amino acid. This type of substitution would be expected to affect the structure of the polypeptide backbone and/or the charge or hydrophobicity of the molecule in the area of the substitution.

[0034] Moderate changes in the activity of the proteins of the present invention would be expected by substituting an amino acid with a side chain that is similar in charge and/or structure to that of the native molecule. This type of substitution, referred to as a conservative substitution, would not be expected to substantially alter either the structure of the polypeptide backbone or the charge or hydrophobicity of the molecule in the area of the substitution.

[0035] Insertional protein variants are those with one or more amino acids inserted immediately adjacent to an amino acid at a particular position in the native protein. Immediately adjacent to an amino acid means connected to either the α-carboxy or α-amino functional group of the amino acid. The insertion may be one or more amino acids. Ordinarily, the insertion will consist of one or two conservative amino acids. Amino acids similar in charge and/or structure to the amino acids adjacent to the site of insertion are defined as conservative. Alternatively, this invention includes insertion of an amino acid with a charge and/or structure that is substantially different from the amino acids adjacent to the site of insertion.

[0036] Deletional variants are those where one or more amino acids in the native proteins have been removed. Ordinarily, deletional variants will have one or two amino acids deleted in a particular region of the protein.

[0037] The terms “DNA sequence encoding”, “DNA encoding” “nucleic acid molecule encoding” and “nucleic acid encoding” refer to the order or sequence of deoxyribonucleotides along a strand of deoxyribonucleic acid. The order of these deoxyribonucleotides determines the order of amino acids along the translated polypeptide chain. The DNA sequence thus codes for the amino acid sequence.

[0038] The terms “replicable vector” “replicable expression vector” and “expression vector” refer to a piece of DNA, usually double-stranded, which may have inserted into it another piece of DNA (the insert DNA) such as, but not limited to, a cDNA molecule. The vector is used to transport the insert DNA into a suitable host cell. The insert DNA may be derived from the host cell, or may be derived from a different cell or organism. Once in the host cell, the vector can replicate independently of or coincidental with the host chromosomal DNA, and several copies of the vector and its inserted DNA may be generated. The terms “replicable expression vector” and “expression vector” refer to vectors that contain the necessary elements that permit transcribing and translating the insert DNA into a polypeptide. Many molecules of the polypeptide encoded by the insert DNA can thus be rapidly synthesized.

[0039] The terms “transformed host cell,” “transformed” and “transformation” refer to the introduction of DNA into a cell. The cell is termed a “host cell”, and it may be, for example, a prokaryotic or a eukaryotic cell. Typical prokaryotic host cells include various strains of E. coli. Typical eukaryotic host cells are plant cells, such as maize cells, yeast cells, insect cells or animal cells. The introduced DNA is usually in the form of a vector containing an inserted piece of DNA. The introduced DNA sequence may be from the same species as the host cell or from a different species from the host cell, or it may be a hybrid DNA sequence, containing some foreign DNA and some DNA derived from the host species.

[0040] In one aspect, the present invention relates to isolated nucleic acid molecules (such as cDNA molecules and genomic clones) that each correspond to all or part of a messenger RNA (mRNA) molecule expressed in a plant oil gland cell, such as oil gland secretory cells. Representative examples of the nucleic acid molecules of the present invention are set forth in SEQ ID NOS:1-472 which disclose full and partial length cDNA molecules synthesized from mRNA extracted from peppermint oil gland cells. Full length cDNAs of the present invention may be obtained, for example, by utilizing the technique of RACE (Rapid Amplification of cDNA Ends), also known as Anchored-PCR. For example, the missing 5′-end of a partial-length cDNA molecule of the present invention can be obtained by priming first strand DNA synthesis with an mRNA-specific oligonucleotide based on the sequence of a portion of the cloned, partial-length cDNA. A poly(A) tail is appended to the 3′-end of the first strand cDNA using terminal deoxynucleotidyltransferase, and second strand cDNA synthesis is primed using a second strand primer that includes a 3′ oligo(dT) portion and a unique oligonucleotide sequence (a representative example of such a “hybrid” primer has the following nucleotide sequence: 5′-CCAGTGAGCAGAGTGACGAGGACTCGAGCTCAAGCTTTTTTTTTTTTTTTTT-3′) (SEQ ID NO:473). Subsequent amplifications can be primed using the unique portion of the second strand primer and a gene-specific primer upstream of and distinct from the primer used for first strand cDNA synthesis, i.e., the upstream gene-specific primer is closer to the 5′-end of the target cDNA molecule than the primer used for first strand cDNA synthesis). A representative RACE protocol is set forth in Chapter 2 of The Polymerase Chain Reaction (Mullis et al., eds.), Birkhauser Boston (1994), which chapter is incorporated herein by reference.

[0041] Full length cDNAs of the present invention may also be cloned, for example, by utilizing the technique of hybridizing radiolabelled nucleic acid probes to nucleic acids immobilized on nitrocellulose filters or nylon membranes, as set forth, for example, at pages 9.52 to 9.55 of Molecular Cloning, A Laboratory Manual (2nd edition), J. Sambrook et al. eds., the cited pages of which are incorporated herein by reference. A representative protocol (based on the aforementioned Sambrook et al. publication) for hybridizing radiolabelled nucleic acid probes to nucleic acids immobilized on nitrocellulose filters or nylon membranes is set forth in Example 2 herein. For example, a full-length cDNA, or substantially full-length cDNA that includes all of the coding region, homologous to one of the cDNAs set forth in SEQ ID NOS:1-472 can be cloned by screening a peppermint oil gland cell cDNA library with the appropriate cDNA from the cDNA sequences set forth in SEQ ID NOS:1-472 using the foregoing hybridization technique. Exemplary hybridization and wash conditions useful for screening the oil gland cDNA library are as follows. Hybridization at 65° C. in 5.0×SSC, 1% sodium dodecyl sulfate, for 16 hours (lower stringency hybridizations preferably utilize 6.0×SSC, 1% sodium dodecyl sulfate, at 20° C. to 30° C. for 16 hours). Exemplary very high stringency wash conditions for screening the oil gland cDNA library are: two washes of fifteen minutes each at 20° C. to 30° C. in 2.0×SSC, followed by two washes of twenty minutes each at 65° C. in 0.5×SSC. Exemplary high stringency wash conditions for screening the oil gland cDNA library are: two washes of twenty minutes each at 20° C. to 30° C. in 2.0×SSC, followed by one wash of thirty minutes at 55° C. in 1.0×SSC. Exemplary moderate stringency wash conditions for screening the oil gland cDNA library are: two washes of twenty minutes each at 20° C. to 30° C. in 3.0×SSC. Preferably, moderate stringency wash conditions are utilized after hybridization in lower stringency hybridization conditions, i.e., 6.0×SSC, 1% sodium dodecyl sulfate, at 20° C. to 30° C. for 16 hours.

[0042] Full length genes of the present invention may be cloned, for example, by utilizing partial-length nucleotide sequences of the invention and various methods known in the art. Gobinda et al. (PCR Methods Applic. 2:318-22, 1993), incorporated herein by reference, disclose “restriction-site PCR” as a direct method which uses universal primers to retrieve unknown sequence adjacent to a known locus. First, genomic DNA is amplified in the presence of a linker-primer, that is homologous to a linker sequence ligated to the ends of the genomic DNA fragments, and in the presence of a primer specific to the known region. The amplified sequences are subjected to a second round of PCR with the same linker primer and another specific primer internal to the first one. Products of each round of PCR are transcribed with an appropriate RNA polymerase and sequenced using reverse transcriptase.

[0043] Inverse PCR permits acquisition of unknown sequences starting with primers based on a known region (Triglia, T. et al., Nucleic Acids Res. 16:8186, 1988, incorporated herein by reference). The method uses several restriction enzymes to generate a suitable fragment in the known region of a gene. The fragment is then circularized by intramolecular ligation and used as a PCR template. Divergent primers are designed from the known region.

[0044] Capture PCR (Lagerstrom, M. et al., PCR Methods Applic. 1:111-19, 1991, incorporated herein by reference) is a method for PCR amplification of DNA fragments adjacent to a known sequence in human and YAC DNA. Capture PCR also requires multiple restriction enzyme digestions and ligations to place an engineered double-stranded sequence into an unknown portion of the DNA molecule before PCR.

[0045] The present invention also relates to nucleic acid molecules that hybridize under stringent conditions to one or more of the nucleic acid molecules (or to their complements) that are set forth in SEQ ID NOS:1-472 of the present application. A representative hybridization protocol utilizes the technique of hybridizing radiolabelled nucleic acid probes to nucleic acids immobilized on nitrocellulose filters or nylon membranes as set forth at pages 9.52 to 9.55 of Molecular Cloning, A Laboratory Manual (2nd edition), J. Sambrook et al. eds., the cited pages of which are incorporated herein by reference. Example 2 herein sets forth a representative protocol useful for identifying nucleic acid molecules that hybridize under stringent conditions to one or more of the nucleic acid molecules (or to their complements) that are set forth in SEQ ID NOS:1-472 of the present application. Representative hybridization probes include fragments, of at least 15 nucleotides in length, of the DNA molecules (or their antisense complements) having the sequences set forth in SEQ ID NOS:1-472. Thus, for example, the DNA molecules having the sequences set forth in SEQ ID NOS:1-472 can be used as hybridization probes.

[0046] Such hybridization probes may be labelled with appropriate reporter molecules. Means for producing specific hybridization probes include oligolabelling, nick translation, end-labelling or PCR amplification using a labelled nucleotide.

[0047] Exemplary hybridization and wash conditions useful for identifying (by Southern blotting) nucleic acid molecules of the invention that hybridize to one or more of the nucleic acid molecules (or to their complements) that are set forth in SEQ ID NOS:1-472 are as follows. Hybridization at 65° C. in 5.0×SSC, 1% sodium dodecyl sulfate, for 16 hours (lower stringency hybridizations preferably utilize 6.0×SSC, 1% sodium dodecyl sulfate, at 20° C. to 30° C. for 16 hours). Exemplary very high stringency wash conditions are: two washes of fifteen minutes each at 20° C. to 30° C. in 2.0×SSC, followed by two washes of twenty minutes each at 65° C. in 0.5×SSC. Exemplary high stringency wash conditions are: two washes of twenty minutes each at 20° C. to 30° C. in 2.0×SSC, followed by one wash of thirty minutes at 55° C. in 1.0×SSC. Exemplary moderate stringency wash conditions are: two washes of twenty minutes each at 20° C. to 30° C. in 3.0×SSC. Preferably, moderate stringency wash conditions are utilized after hybridization in lower stringency hybridization conditions, i.e., 6.0×SSC, 1% sodium dodecyl sulfate, at 20° C. to 30° C. for 16 hours.

[0048] Nucleic acid molecules of the present invention can be isolated by using a variety of cloning techniques known to those of ordinary skill in the art. Thus, for example, nucleic acid molecules of the present invention can be isolated by using the DNA molecules, having the sequences set forth in SEQ ID NOS:1-472, as hybridization probes to screen cDNA or genomic libraries utilizing the aforementioned technique of hybridizing radiolabelled nucleic acid probes to nucleic acids immobilized on nitrocellulose filters or nylon membranes. Exemplary hybridization and wash conditions are: hybridization at 65° C. in 3.0×SSC, 1% sodium dodecyl sulfate; washing (three washes of twenty minutes each at 55° C.) in 0.5×SSC, 1% (w/v) sodium dodecyl sulfate.

[0049] Again, by way of example, nucleic acid molecules of the present invention can be isolated by the polymerase chain reaction (PCR) described in The Polymerase Chain Reaction (Mullis et al. eds.), Birkhauser Boston (1994), incorporated herein by reference. Thus, for example, first strand DNA synthesis can be primed using an oligo(dT) primer, and second strand cDNA synthesis can be primed using an oligonucleotide primer that corresponds to a portion of the 5′-untranslated region of a cDNA molecule that is homologous to the target DNA molecule. Subsequent rounds of PCR can be primed using the second strand cDNA synthesis primer and a primer that corresponds to a portion of the 3′-untranslated region of a cDNA molecule that is homologous to the target DNA molecule. In this way, homologs of a cDNA molecule can be cloned from a range of different plant species.

[0050] By way of non-limiting example, representative PCR reaction conditions for amplifying nucleic acid molecules of the present invention (such as amplifying genes from plant genomic DNA) are as follows. The following reagents are mixed in a tube (on ice) to form the PCR reaction mixture: DNA template (e.g., up to 1 μg genomic DNA, or up to 0.1 μg cDNA), 0.1-0.3 mM dNTPs, 10 μl 10×PCR buffer (10×PCR buffer contains 500 mM KCL, 15 mM MgCL₂, 100 mM Tris-HCL, pH 8.3), 50 pmol of each PCR primer (PCR primers should preferably be greater than 20 bp in length and have a degeneracy of 102 to 103), 2.5 units of Taq DNA polymerase (Perkin Elmer, Norwalk, Conn.) and deionized water to a final volume of 50 μl. The tube containing the reaction mixture is placed in a thermocycler and a thermocycler program is run as follows. Denaturation at 94° C. for 2 minutes, then 30 cycles of: 94° C. for 30 seconds, 47° C. to 55° C. for 30 seconds, and 72° C. for 30 seconds to two and a half minutes.

[0051] Further, nucleic acid molecules of the present invention can also be isolated, for example, by utilizing antibodies that recognize the protein encoded by the nucleic acid molecule. By way of non-limiting example, a cDNA expression library can be screened using antibodies in order to identify one or more clones that encode a protein recognized by the antibodies. DNA expression library technology is well known to those of ordinary skill in the art. An exemplary protocol for screening a cDNA expression library is set forth in Example 3 herein. Screening cDNA expression libraries is fully discussed in Chapter 12 of Sambrook et al. (1989) Molecular Cloning: A Laboratory Manual, 2nd ed., Cold Spring Harbor Laboratory, Cold Spring Harbor, N.Y., the cited chapter of which is incorporated herein by reference.

[0052] By way of representative example, antigen useful for raising antibodies for screening expression libraries can be prepared in the following manner. A full-length cDNA molecule of the present invention (or a cDNA molecule of the invention that is not full-length, but which includes all of the coding region) can be cloned into a plasmid vector, such as a Bluescript plasmid (available from Stratagene, Inc., La Jolla, Calif.). The recombinant vector is then introduced into an E. coli strain (such as E. coli XL1-Blue, also available from Stratagene, Inc.) and the protein encoded by the cDNA is expressed in E. coli and then purified. For example, E. coli XL 1-Blue harboring a Bluescript vector including a cDNA molecule of interest can be grown overnight at 37° C. in LB medium containing 100 μg ampicillin/ml. A 50 μl aliquot of the overnight culture can be used to inoculate 5 ml of fresh LB medium containing ampicillin, and the culture grown at 37° C. with vigorous agitation to A₆₀₀=0.5 before induction with 1 mM IPTG. After an additional two hours of growth, the suspension is centrifuged (1000×g, 15 min, 4° C.), the media removed, and the pelleted cells resuspended in 1 ml of cold buffer that preferably contains 1 mM EDTA and one or more proteinase inhibitors, such as those described herein in connection with the purification of the isolated proteins of the present invention. The cells can be disrupted by sonication with a microprobe. The chilled sonicate is cleared by centrifugation and the expressed, recombinant protein purified from the supernatant by art-recognized protein purification techniques, such as those described herein.

[0053] Methods for preparing monoclonal and polyclonal antibodies are well known to those of ordinary skill in the art and are set forth, for example, in chapters five and six of Antibodies A Laboratory Manual, E. Harlow and D. Lane, Cold Spring Harbor Laboratory (1988), the cited chapters of which are incorporated herein by reference. In one representative example, polyclonal antibodies specific for a purified protein can be raised in a New Zealand rabbit implanted with a whiffle ball. One μg of protein is injected at intervals directly into the whiffle ball granuloma. A representative injection regime is injections (each of 1 μg protein) at day 1, day 14 and day 35. Granuloma fluid is withdrawn one week prior to the first injection (preimmune serum), and forty days after the final injection (postimmune serum).

[0054] Nucleic acid molecules of the present invention can be used for a variety of purposes including, but not limited to: isolation of full-length cDNAs (and/or complete genes) encoding proteins expressed in plant oil gland cells, such as the oil gland secretory cells of essential oil plants; the development of efficient expression systems for proteins normally expressed in plant oil gland cells; investigation and/or manipulation of the developmental regulation of proteins normally expressed in plant oil gland cells; to express plant oil gland proteins in bacterial and/or yeast cells to produce plant oil gland products (such as terpenoid essential oils and resins); genetic transformation of a wide range of organisms, including plants, and to physically and/or genetically map a plant genome (such as the peppermint plant genome). A nucleic acid molecule of the present invention may be incorporated into plants, or cell cultures derived therefrom, for a variety of purposes including enhancement or suppression (for example by antisense suppression) of expression of proteins normally expressed in plant oil glands and which are involved in the biosynthesis of terpenoid essential oils and resins. Thus, for example, in one aspect the present invention provides methods for enhancing the production of essential oils and/or resins in plants by overexpressing a protein involved in the biosynthesis of terpenoid essential oils and/or resins in plant oil gland cells. By way of non-limiting example, nucleic acid molecules of the present invention that encode proteins involved in lipid secretion (i.e., extracellular transport), or proteins involved in intracellular transport of lipids, or transcription factors that regulate terpenoid biosynthesis, may be introduced into cultured cells (such as cells cultured in liquid medium) of the plant species Taxus which synthesize the diterpene paclitaxel (or may be introduced into microorganisms such as Taxomyces andreanae and Penicillium raistrickii which synthesize the diterpene paclitaxel) thereby enhancing the amount of paclitaxel produced and/or secreted by the cultured cells. Representative examples of nucleic acid molecules of the present invention that encode putative transcription factors are set forth in Table 3 herein. Representative examples of nucleic acid molecules of the present invention that encode proteins believed to be involved in lipid secretion (i.e., extracellular lipid transport), or proteins believed to be involved in intracellular transport of lipids are set forth in Table 4 herein.

[0055] In another aspect, the present invention is directed to isolated proteins (such as proteins encoded by the nucleic acid molecules of the present invention) that are naturally expressed in plant oil gland cells. The proteins of the present invention can be isolated, for example, by incorporating a nucleic acid molecule of the invention (such as a cDNA molecule) into an expression vector, introducing the expression vector into a host cell and expressing the nucleic acid molecule to yield protein. The protein can then be purified by art-recognized means. When a crude protein extract is initially prepared, it may be desirable to include one or more proteinase inhibitors in the extract. Representative examples of proteinase inhibitors include: serine proteinase inhibitors (such as phenylmethylsulfonyl fluoride (PMSF), benzamide, benzamidine HCl, ε-Amino-n-caproic acid and aprotinin (Trasylol)); cysteine proteinase inhibitors, such as sodium p-hydroxymercuribenzoate; competitive proteinase inhibitors, such as antipain and leupeptin; covalent proteinase inhibitors, such as iodoacetate and N-ethylmaleimide; aspartate (acidic) proteinase inhibitors, such as pepstatin and diazoacetylnorleucine methyl ester (DAN); metalloproteinase inhibitors, such as EGTA [ethylene glycol bis(β-aminoethyl ether) N,N,N′,N′-tetraacetic acid], and the chelator 1,10-phenanthroline.

[0056] Representative examples of art-recognized techniques for purifying, or partially purifying, proteins from biological material are exclusion chromatography, ion-exchange chromatography, hydrophobic interaction chromatography, reversed-phase chromatography and immobilized metal affinity chromatography.

[0057] Hydrophobic interaction chromatography and reversed-phase chromatography are two separation methods based on the interactions between the hydrophobic moieties of a sample and an insoluble, immobilized hydrophobic group present on the chromatography matrix. In hydrophobic interaction chromatography the matrix is hydrophilic and is substituted with short-chain phenyl or octyl nonpolar groups. The mobile phase is usually an aqueous salt solution. In reversed phase chromatography the matrix is silica that has been substituted with longer n-alkyl chains, usually C₈ (octylsilyl) or C₁₈ (octadecylsilyl). The matrix is less polar than the mobile phase. The mobile phase is usually a mixture of water and a less polar organic modifier.

[0058] Separations on hydrophobic interaction chromatography matrices are usually done in aqueous salt solutions, which generally are nondenaturing conditions. Samples are loaded onto the matrix in a high-salt buffer and elution is by a descending salt gradient. Separations on reversed-phase media are usually done in mixtures of aqueous and organic solvents, which are often denaturing conditions. In the case of protein and/or peptide purification, hydrophobic interaction chromatography depends on surface hydrophobic groups and is carried out under conditions which maintain the integrity of the protein molecule. Reversed-phase chromatography depends on the native hydrophobicity of the protein and is carried out under conditions which expose nearly all hydrophobic groups to the matrix, i.e., denaturing conditions.

[0059] Ion-exchange chromatography is designed specifically for the separation of ionic or ionizable compounds. The stationary phase (column matrix material) carries ionizable functional groups, fixed by chemical bonding to the stationary phase. These fixed charges carry a counterion of opposite sign. This counterion is not fixed and can be displaced. Ion-exchange chromatography is named on the basis of the sign of the displaceable charges. Thus, in anion ion-exchange chromatography the fixed charges are positive and in cation ion-exchange chromatography the fixed charges are negative.

[0060] Retention of a molecule on an ion-exchange chromatography column involves an electrostatic interaction between the fixed charges and those of the molecule, binding involves replacement of the nonfixed ions by the molecule. Elution, in turn, involves displacement of the molecule from the fixed charges by a new counterion with a greater affinity for the fixed charges than the molecule, and which then becomes the new, nonfixed ion.

[0061] The ability of counterions (salts) to displace molecules bound to fixed charges is a function of the difference in affinities between the fixed charges and the nonfixed charges of both the molecule and the salt. Affinities in turn are affected by several variables, including the magnitude of the net charge of the molecule and the concentration and type of salt used for displacement.

[0062] Solid-phase packings used in ion-exchange chromatography include cellulose, dextrans, agarose, and polystyrene. The exchange groups used include DEAE (diethylaminoethyl), a weak base, that will have a net positive charge when ionized and will therefore bind and exchange anions; and CM (carboxymethyl), a weak acid, with a negative charge when ionized that will bind and exchange cations. Another form of weak anion exchanger contains the PEI (polyethyleneimine) functional group. This material, most usually found on thin layer sheets, is useful for binding proteins at pH values above their pI. The polystyrene matrix can be obtained with quaternary ammonium functional groups for strong base anion exchange or with sulfonic acid functional groups for strong acid cation exchange. Intermediate and weak ion-exchange materials are also available. Ion-exchange chromatography need not be performed using a column, and can be performed as batch ion-exchange chromatography with the slurry of the stationary phase in a vessel such as a beaker.

[0063] Gel filtration is performed using porous beads as the chromatographic support. A column constructed from such beads will have two measurable liquid volumes, the external volume, consisting of the liquid between the beads, and the internal volume, consisting of the liquid within the pores of the beads. Large molecules will equilibrate only with the external volume while small molecules will equilibrate with both the external and internal volumes. A mixture of molecules (such as proteins) is applied in a discrete volume or zone at the top of a gel filtration column and allowed to percolate through the column. The large molecules are excluded from the internal volume and therefore emerge first from the column while the smaller molecules, which can access the internal volume, emerge later. The volume of a conventional matrix used for protein purification is typically 30 to 100 times the volume of the sample to be fractionated. The absorbance of the column effluent can be continuously monitored at a desired wavelength using a flow monitor.

[0064] A technique that is often applied to the purification of proteins is High Performance Liquid Chromatography (HPLC). HPLC is an advancement in both the operational theory and fabrication of traditional chromatographic systems. HPLC systems for the separation of biological macromolecules vary from the traditional column chromatographic systems in three ways; (1) the column packing materials are of much greater mechanical strength, (2) the particle size of the column packing materials has been decreased 5- to 10-fold to enhance adsorption-desorption kinetics and diminish bandspreading, and (3) the columns are operated at 10-60 times higher mobile-phase velocity. Thus, by way of non-limiting example, HPLC can utilize exclusion chromatography, ion-exchange chromatography, hydrophobic interaction chromatography, reversed-phase chromatography and immobilized metal affinity chromatography. Art-recognized techniques for the purification of proteins and peptides are set forth in Methods in Enzymology, Vol. 182, Guide to Protein Purification, Murray P. Deutscher, ed. (1990), which publication is incorporated herein by reference. In particular, Section IV, chapter 14, of the Deutscher publication discloses representative techniques for the preparation of protein extracts from plant material.

[0065] In addition to native proteins, protein variants produced by deletions, substitutions, mutations and/or insertions are intended to be within the scope of the invention except insofar as limited by the prior art. In the design of a particular site directed mutagenesis experiment, it is generally desirable to first make a non-conservative substitution (e.g., Ala for Cys, His or Glu) and determine if the biological activity of the mutated protein is greatly impaired as a consequence. The properties of the mutagenized protein are then examined with particular attention to the kinetic parameters of K_(m) and k_(cat) as sensitive indicators of altered function, from which changes in binding and/or catalysis per se may be deduced by comparison to the native enzyme. If the residue is by this means demonstrated to be important by activity impairment, or knockout, then conservative substitutions can be made, such as Asp for Glu to alter side chain length, Ser for Cys, or Arg for His. For hydrophobic segments, it is largely size that is usefully altered, although aromatics can also be substituted for alkyl side chains. Changes in the normal product distribution can indicate which step(s) of the reaction sequence have been altered by the mutation. Modification of the hydrophobic pocket can be employed to change binding conformations for substrates and result in altered regiochemistry and/or stereochemistry.

[0066] The protein variants of this invention may be constructed by mutating the DNA sequences that encode the wild-type proteins, such as by using techniques commonly referred to as site-directed mutagenesis. Nucleic acid molecules encoding the proteins of the present invention can be mutated by a variety of PCR techniques well known to one of ordinary skill in the art. (See, for example, the following publications, the cited portions of which are incorporated by reference herein: PCR Strategies, M. A. Innis et al. eds., 1995, Academic Press, San Diego, Calif. (Chapter 14); PCR Protocols: A Guide to Methods and Applications, M. A. Innis et al. eds., Academic Press, NY (1990).)

[0067] By way of non-limiting example, the two primer system utilized in the Transformer Site-Directed Mutagenesis kit from Clontech (Palo Alto, Calif.), may be employed for introducing site-directed mutants into nucleic acid molecules that encode proteins of the present invention. Following denaturation of the target plasmid in this system, two primers are simultaneously annealed to the plasmid; one of these primers contains the desired site-directed mutation, the other contains a mutation at another point in the plasmid resulting in elimination of a restriction site. Second strand synthesis is then carried out, tightly linking these two mutations, and the resulting plasmids are transformed into a mutS strain of E. coli. Plasmid DNA is isolated from the transformed bacteria, restricted with the relevant restriction enzyme (thereby linearizing the unmutated plasmids), and then retransformed into E. coli. This system allows for generation of mutations directly in an expression plasmid, without the necessity of subcloning or generation of single-stranded phagemids. The tight linkage of the two mutations and the subsequent linearization of unmutated plasmids results in high mutation efficiency and allows minimal screening. Following synthesis of the initial restriction site primer, this method requires the use of only one new primer type per mutation site. Rather than prepare each positional mutant separately, a set of “designed degenerate” oligonucleotide primers can be synthesized in order to introduce all of the desired mutations at a given site simultaneously. Transformants can be screened by sequencing the plasmid DNA through the mutagenized region to identify and sort mutant clones. Each mutant DNA can then be fully sequenced or restricted and analyzed by electrophoresis on Mutation Detection Enhancement gel (J. T. Baker, Sanford, Me.) to confirm that no other alterations in the sequence have occurred (by band shift comparison to the unmutagenized control).

[0068] Again, by way of non-limiting example, the two primer system utilized in the QuikChange™ Site-Directed Mutagenesis kit from Stratagene (LaJolla, Calif.), may be employed for introducing site-directed mutations into nucleic acid molecules that encode proteins of the present invention. Double-stranded plasmid DNA, containing the insert bearing the target mutation site, is denatured and mixed with two oligonucleotides complementary to each of the strands of the plasmid DNA at the target mutation site. The annealed oligonucleotide primers are extended using Pfu DNA polymerase, thereby generating a mutated plasmid containing staggered nicks. After temperature cycling, the unmutated, parental DNA template is digested with restriction enzyme DpnI which cleaves methylated or hemimethylated DNA, but which does not cleave unmethylated DNA. The parental, template DNA is almost always methylated or hemimethylated since most strains of E. coli, from which the template DNA is obtained, contain the required methylase activity. The remaining, annealed vector DNA incorporating the desired mutation(s) is transformed into E. coli.

[0069] Nucleic acid molecules encoding proteins of the present invention (including variants of the naturally-occurring proteins) can be cloned into a pET (or other) overexpression vector that can be employed to transform E. coli, such as E. coli strain BL21(DE3)pLysS, for high level production of the protein, and purification by standard protocols. Examples of plasmid vectors and E. coli strains that can be used to express high levels of the proteins of the present invention are set forth in Sambrook et al., Molecular Cloning, A Laboratory Manual, 2nd Edition (1989), Chapter 17. The method of FAB-MS mapping can be employed to rapidly check the fidelity of protein expression. This technique provides for sequencing segments throughout the whole protein and provides the necessary confidence in the sequence assignment. In a mapping experiment of this type, protein is digested with a protease (the choice will depend on the specific region to be modified since this segment is of prime interest and the remaining map should be identical to the map of unmutagenized protein). The set of cleavage fragments is fractionated by microbore HPLC (reversed phase or ion exchange, again depending on the specific region to be modified) to provide several peptides in each fraction, and the molecular weights of the peptides are determined by FAB-MS. The masses are then compared to the molecular weights of peptides expected from the digestion of the predicted sequence, and the correctness of the sequence quickly ascertained. Since the exemplary mutagenesis techniques set forth herein produce site-directed mutations, sequencing of the altered peptide should not be necessary if the mass spectrograph agrees with prediction. If necessary to verify a changed residue in a protein variant, CAD-tandem MS/MS can be employed to sequence the peptides of the mixture in question, or the target peptide can be purified for subtractive Edman degradation or carboxypeptidase Y digestion depending on the location of the modification.

[0070] Other site directed mutagenesis techniques may also be employed with the nucleotide sequences of the invention. For example, restriction endonuclease digestion of DNA followed by ligation may be used to generate deletion variants of proteins of the present invention, as described in section 15.3 of Sambrook et al. Molecular Cloning: A Laboratory Manual, 2nd Ed., Cold Spring Harbor Laboratory Press, New York, N.Y. (1989), incorporated herein by reference. A similar strategy may be used to construct insertion variants, as described in section 15.3 of Sambrook et al., supra.

[0071] Oligonucleotide-directed mutagenesis may also be employed for preparing substitution variants of this invention. It may also be used to conveniently prepare the deletion and insertion variants of this invention. This technique is well known in the art as described by Adelman et al. (DNA 2:183, 1983); Sambrook et al., supra; Current Protocols in Molecular Biology, 1991, Wiley (NY), F. T. Ausubel et al. eds., incorporated herein by reference.

[0072] Generally, oligonucleotides of at least 25 nucleotides in length are used to insert, delete or substitute two or more nucleotides in a nucleic acid molecule encoding a protein of the invention. An optimal oligonucleotide will have 12 to 15 perfectly matched nucleotides on either side of the nucleotides coding for the mutation. To mutagenize a wild-type protein, the oligonucleotide is annealed to the single-stranded DNA template molecule under suitable hybridization conditions. A DNA polymerizing enzyme, usually the Klenow fragment of E. coli DNA polymerase I, is then added. This enzyme uses the oligonucleotide as a primer to complete the synthesis of the mutation-bearing strand of DNA. Thus, a heteroduplex molecule is formed such that one strand of DNA encodes the wild-type synthase inserted in the vector, and the second strand of DNA encodes the mutated form of the synthase inserted into the same vector. This heteroduplex molecule is then transformed into a suitable host cell.

[0073] Mutants with more than one amino acid substituted may be generated in one of several ways. If the amino acids are located close together in the polypeptide chain, they may be mutated simultaneously using one oligonucleotide that codes for all of the desired amino acid substitutions. If, however, the amino acids are located some distance from each other (separated by more than ten amino acids, for example) it is more difficult to generate a single oligonucleotide that encodes all of the desired changes. Instead, one of two alternative methods may be employed. In the first method, a separate oligonucleotide is generated for each amino acid to be substituted. The oligonucleotides are then annealed to the single-stranded template DNA simultaneously, and the second strand of DNA that is synthesized from the template will encode all of the desired amino acid substitutions. An alternative method involves two or more rounds of mutagenesis to produce the desired mutant. The first round is as described for the single mutants: DNA encoding wild-type protein is used for the template, an oligonucleotide encoding the first desired amino acid substitution(s) is annealed to this template, and the heteroduplex DNA molecule is then generated. The second round of mutagenesis utilizes the mutated DNA produced in the first round of mutagenesis as the template. Thus, this template already contains one or more mutations. The oligonucleotide encoding the additional desired amino acid substitution(s) is then annealed to this template, and the resulting strand of DNA now encodes mutations from both the first and second rounds of mutagenesis. This resultant DNA can be used as a template in a third round of mutagenesis, and so on.

[0074] Eukaryotic expression systems may be utilized for the production of proteins of the invention since they are capable of carrying out any required posttranslational modifications and of directing the proteins to the proper cellular compartment. A representative eukaryotic expression system for this purpose uses the recombinant baculovirus, Autographa californica nuclear polyhedrosis virus (AcNPV; M. D. Summers and G. E. Smith, A Manual of Methods for Baculovirus Vectors and Insect Cell Culture Procedures (1986); Luckow et al., Bio-technology 6:47-55, 1987) for expression of the proteins of the invention. Infection of insect cells (such as cells of the species Spodoptera frugiperda) with the recombinant baculoviruses allows for the production of large amounts of proteins. In addition, the baculovirus system has other important advantages for the production of recombinant proteins. For example, baculoviruses do not infect humans and can therefore be safely handled in large quantities. In the baculovirus system, a DNA construct is prepared including a vector and a DNA segment encoding a protein. The vector may comprise the polyhedron gene promoter region of a baculovirus, the baculovirus flanking sequences necessary for proper cross-over during recombination (the flanking sequences comprise about 200-300 base pairs adjacent to the promoter sequence) and a bacterial origin of replication which permits the construct to replicate in bacteria. The vector is constructed so that (i) the DNA segment is placed adjacent (or operably linked or “downstream” or “under the control of”) to the polyhedron gene promoter and (ii) the promoter/protein combination is flanked on both sides by 200-300 base pairs of baculovirus DNA (the flanking sequences).

[0075] To produce the desired DNA construct, a cDNA clone encoding the full length protein is obtained using methods such as those described herein. The DNA construct is contacted in a host cell with baculovirus DNA of an appropriate baculovirus (that is, of the same species of baculovirus as the promoter encoded in the construct) under conditions such that recombination is effected. The resulting recombinant baculoviruses encode the full-length protein. For example, an insect host cell can be cotransfected or transfected separately with the DNA construct and a functional baculovirus. Resulting recombinant baculoviruses can then be isolated and used to infect cells to effect production of the protein. Host insect cells include, for example, Spodoptera frugiperda cells, that are capable of producing a baculovirus-expressed protein. Insect host cells infected with a recombinant baculovirus of the present invention are then cultured under conditions allowing expression of the baculovirus-encoded protein. Protein thus produced is then extracted from the cells using methods known in the art.

[0076] Other eukaryotic microbes such as yeasts may also be used in the practice of the present invention, for example to express the proteins of the present invention. The baker's yeast Saccharomyces cerevisiae, is a commonly used yeast, although several other strains are available. The plasmid YRp7 (Stinchcomb et al., Nature 282:39, 1979; Kingsman et al., Gene 7:141, 1979; Tschemper et al., Gene 10:157, 1980, is commonly used as an expression vector in Saccharomyces. This plasmid contains the trp1 gene that provides a selection marker for a mutant strain of yeast lacking the ability to grow in tryptophan, such as strains ATCC No. 44,076 and PEP4-1 (Jones, Genetics, 85:12, 1977. The presence of the trp1 lesion as a characteristic of the yeast host cell genome then provides an effective environment for detecting transformation by growth in the absence of tryptophan. Yeast host cells are generally transformed using the polyethylene glycol method, as described by Hinnen (Proc. Natl. Acad. Sci. USA 75:1929, 1978. Additional yeast transformation protocols are set forth in Gietz et al., N.A.R. 20(17):1425, 1992; Reeves et al., FEMS 99(2-3):193-197, 1992, both of which publications are incorporated herein by reference.

[0077] Suitable promoting sequences in yeast vectors include the promoters for 3-phosphoglycerate kinase (Hitzeman et al., J. Biol. Chem. 255:2073, 1980 or other glycolytic enzymes (Hess et al., J. Adv. Enzyme Reg. 7:149, 1968; Holland et al., Biochemistry 17:4900, 1978), such as enolase, glyceraldehyde-3-phosphate dehydrogenase, hexokinase, pyruvate decarboxylase, phosphofructokinase, glucose-6-phosphate isomerase, 3-phosphoglycerate mutase, pyruvate kinase, triosephosphate isomerase, phosphoglucose isomerase, and glucokinase. In the construction of suitable expression plasmids, the termination sequences associated with these genes are also ligated into the expression vector 3′ of the sequence desired to be expressed to provide polyadenylation of the mRNA and termination. Other promoters that have the additional advantage of transcription controlled by growth conditions are the promoter region for alcohol dehydrogenase 2, isocytochrome C, acid phosphatase, degradative enzymes associated with nitrogen metabolism, and the aforementioned glyceraldehyde-3-phosphate dehydrogenase, and enzymes responsible for maltose and galactose utilization. Any plasmid vector containing yeast-compatible promoter, origin of replication and termination sequences is suitable.

[0078] Cell cultures derived from multicellular organisms, such as plants, may be used as hosts to practice this invention. Transgenic plants can be obtained, for example, by transferring plasmids that encode a protein of the invention and a selectable marker gene, e.g., the kan gene encoding resistance to kanamycin, into Agrobacterium tumifaciens containing a helper Ti plasmid as described in Hoeckema et al., Nature 303:179-181, 1983, and culturing the Agrobacterium cells with leaf slices, or other tissues or cells, of the plant to be transformed as described by An et al., Plant Physiology 81:301-305, 1986. Transformation of cultured plant host cells is normally accomplished through Agrobacterium tumifaciens. Cultures of mammalian host cells and other host cells that do not have rigid cell membrane barriers are usually transformed using the calcium phosphate method as originally described by Graham and Van der Eb (Virology 52:546, 1978) and modified as described in sections 16.32-16.37 of Sambrook et al., supra. However, other methods for introducing DNA into cells such as Polybrene (Kawai and Nishizawa, Mol. Cell. Biol. 4:1172, 1984), protoplast fusion (Schaffner, Proc. Natl. Acad. Sci. USA 77:2163, 1980), electroporation (Neumann et al., EMBO J. 1:841, 1982), and direct microinjection into nuclei (Capecchi, Cell 22:479M 1980) may also be used. Additionally, animal transformation strategies are reviewed in Monastersky G. M. and Robl, J. M., Strategies in Transgenic Animal Science, ASM Press, Washington, D.C., 1995, incorporated herein by reference. Transformed plant calli may be selected through the selectable marker by growing the cells on a medium containing, e.g., kanamycin, and appropriate amounts of phytohormone such as naphthalene acetic acid and benzyladenine for callus and shoot induction. The plant cells may then be regenerated and the resulting plants transferred to soil using techniques well known to those skilled in the art.

[0079] In addition, a nucleic acid molecule encoding a protein of the present invention can be incorporated into a plant along with a necessary promoter which is inducible. In the practice of this embodiment of the invention, a promoter that only responds to a specific external or internal stimulus is fused to the target cDNA. Thus, the nucleic acid molecule will not be transcribed except in response to the specific stimulus. As long as the nucleic acid molecule is not being transcribed, its protein product is not produced.

[0080] An illustrative example of a responsive promoter system that can be used in the practice of this invention is the glutathione-S-transferase (GST) system in maize. GSTs are a family of enzymes that can detoxify a number of hydrophobic electrophilic compounds that often are used as pre-emergent herbicides (Weigand et al., Plant Molecular Biology 7:235-243, 1986). Studies have shown that the GSTs are directly involved in causing this enhanced herbicide tolerance. This action is primarily mediated through a specific 1.1 kb mRNA transcription product. In short, maize has a naturally occurring quiescent gene already present that can respond to external stimuli and that can be induced to produce a gene product. This gene has previously been identified and cloned. Thus, in one embodiment of this invention, the promoter is removed from the GST responsive gene and attached to a gene of the present invention that previously has had its native promoter removed. This engineered gene is the combination of a promoter that responds to an external chemical stimulus and a gene responsible for successful production of a protein of the present invention.

[0081] In addition to the methods described above, several methods are known in the art for transferring cloned DNA into a wide variety of plant species, including gymnosperms, angiosperms, monocots and dicots (see, e.g., Glick and Thompson, eds., Methods in Plant Molecular Biology, CRC Press, Boca Raton, Fla. (1993), incorporated by reference herein). Representative examples include electroporation-facilitated DNA uptake by protoplasts in which an electrical pulse transiently permeabilizes cell membranes, permitting the uptake of a variety of biological molecules, including recombinant DNA (Rhodes et al., Science 240(4849):204-207, 1988); treatment of protoplasts with polyethylene glycol (Lyznik et al., Plant Molecular Biology 13:151-161, 1989); and bombardment of cells with DNA-laden microprojectiles which are propelled by explosive force or compressed gas to penetrate the cell wall (Klein et al., Plant Physiol. 91:440-444, 1989, and Boynton et al., Science 240(4858):1534-1538, 1988). A method that has been applied to Rye plants (Secale cereale) is to directly inject plasmid DNA, including a selectable marker gene, into developing floral tillers (de la Pena et al., Nature 325:274-276, 1987). Further, plant viruses can be used as vectors to transfer genes to plant cells. Examples of plant viruses that can be used as vectors to transform plants include the Cauliflower Mosaic Virus (Brisson et al., Nature 310:511-514, 1984. Additionally, plant transformation strategies and techniques are reviewed in Birch, R. G., Ann. Rev. Plant Phys. Plant Mol. Biol. 48:297, 1997; Forester et al., Exp. Agric. 33:15-33, 1997. The aforementioned publications disclosing plant transformation techniques are incorporated herein by reference, and minor variations make these technologies applicable to a broad range of plant species.

[0082] The cells which have been transformed may be grown into plants by a variety of art-recognized means. See, for example, McConnick et al., Plant Cell Reports 5:81-84, 1986. These plants may then be grown, and either selfed or crossed with a different plant strain, and the resulting homozygotes or hybrids having the desired phenotypic characteristic identified. Two or more generations may be grown to ensure that the subject phenotypic characteristic is stably maintained and inherited and then seeds harvested to ensure the desired phenotype or other property has been achieved.

[0083] The following are representative plant species that are suitable for genetic manipulation in accordance with the present invention. The citations are to representative publications disclosing genetic transformation protocols that can be used to genetically transform the listed plant species. Each of the following publications relating to plant transformation are incorporated herein by reference. Rice (Alam, M. F. et al., Plant Cell Rep. 18:572-575, 1999); maize (Merlo, A. O. et al., Plant Cell 10:1603-1621, 1998); wheat (Ortiz, J. P. A. et al., Plant Cell Rep. 15:877-881, 1996); tomato (Filatti, J. J. et al., Bio/Technology 5:726-730, 1987); potato (Kumar, A. et al., Plant J. 9:821-829, 1996); cassaya (Li, H.-Q. et al., Nat. Biotechnology, 14:736-740, 1996); lettuce (Michelmore, R. et al., Plant Cell Rep 6:439-442 (1987)); tobacco (Horsch, R. B. et al., Science, 227:1229-1231, 1985); cotton (McCabe, D. E. and Martinell, B. J., Biotechnology 11:596-598, 1993); grasses (Xiao, L. and Ha, S.-B., Plant Cell Rep. 16:874-878 (1997); Ye, X. et al., Plant Cell Rep. 16:379-384, 1997; Dalton, S. J. et al., Plant Sci. 132:31-43, 1998; Hartman, C. L., Lee, L., Day, P. R. and N. E. Turner, Bio/Tech. 12:919-923, 1994; Inokuma, C., Sugiura, K., Imaizumi, N. and C. Cho, Plant Cell Rep. 17:334-338, 1998; Lee, L., Laramore, C. L., Day, P. R. and N. E. Tumer, Crop Sci. 36:401-406, 1996; Spangenberg, G., Wang, Z.-Y., Nagel, J. and I. Potrykus, Plant Sci. 97:83-94, 1994; Spangenberg, G., Wang, Z.-Y., Wu, X, Nagel, J. and I. Potrykus, Plant Sci. 108:209-217, 1995; Takamizo, T., Suginobu, K. and G. Ohsugi, Plant Science 72:125-131, 1990; Wang, G. R., Binding, H. and U. K. Posselt, Plant Physiol. 151:83-90, 1997; Wang, Z. Y., Nagel, J., Potrykus, I. and G. Spangenberg, Plant Sci. 94:179-193, 1993); peppermint (X. Niu et al., Plant Cell Reports 17:165-171, 1998); citrus plants (Pena, L. et al., Plant Science 104:183-191, 1995); caraway (F. A. Krens, et al., Plant Cell Reports 17:39-43, 1997); and Artemisia (S. Banerjee et al., Planta Medica 63(5):467-469, 1997).

[0084] Each of these techniques has advantages and disadvantages. In each of the techniques, DNA from a plasmid is genetically engineered such that it contains not only the gene of interest, but also selectable and screenable marker genes. A selectable marker gene is used to select only those cells that have integrated copies of the plasmid (the construction is such that the gene of interest and the selectable and screenable genes are transferred as a unit). The screenable gene provides another check for the successful culturing of only those cells carrying the genes of interest. A commonly used selectable marker gene is neomycin phosphotransferase II (NPT II). This gene conveys resistance to kanamycin, a compound that can be added directly to the growth media on which the cells grow. Plant cells are normally susceptible to kanamycin and, as a result, die. The presence of the NPT II gene overcomes the effects of the kanamycin and each cell with this gene remains viable. Another selectable marker gene which can be employed in the practice of this invention is the gene which confers resistance to the herbicide glufosinate (Basta). A screenable gene commonly used is the β-glucuronidase gene (GUS). The presence of this gene is characterized using a histochemical reaction in which a sample of putatively transformed cells is treated with a GUS assay solution. After an appropriate incubation, the cells containing the GUS gene turn blue.

[0085] The plasmid containing one or more of these genes is introduced into either plant protoplasts or callus cells by any of the previously mentioned techniques. If the marker gene is a selectable gene, only those cells that have incorporated the DNA package survive under selection with the appropriate phytotoxic agent. Once the appropriate cells are identified and propagated, plants are regenerated. Progeny from the transformed plants must be tested to insure that the DNA package has been successfully integrated into the plant genome.

[0086] Mammalian host cells may also be used in the practice of the invention, for example to express proteins of the present invention. Examples of suitable mammalian cell lines include monkey kidney CVI line transformed by SV40 (COS-7, ATCC CRL 1651); human embryonic kidney line 293S (Graham et al., J. Gen. Virol. 36:59, 1977); baby hamster kidney cells (BHK, ATCC CCL 10); Chinese hamster ovary cells (Urlab and Chasin, Proc. Natl. Acad. Sci USA 77:4216 (1980)); mouse sertoli cells (TM4, Mather, Biol. Reprod. 23:243, 1980); monkey kidney cells (CVI-76, ATCC CCL70); African green monkey kidney cells (VERO-76, ATCC CRL-1587); human cervical carcinoma cells (HELA, ATCC CCL 2); canine kidney cells (MDCK, ATCC CCL 34); buffalo rat liver cells (BRL 3A, ATCC CRL 1442); human lung cells (W138, ATCC CCL 75); human liver cells (Hep G2, HB 8065); mouse mammary tumor cells (MMT 060562, ATCC CCL 51); rat hepatoma cells (HTC, MI.54, Baumann et al., J. Cell Biol. 85:1, 1980); and TR1 cells (Mather et al., Annals N.Y. Acad. Sci. 383:44, 1982). Expression vectors for these cells ordinarily include (if necessary) DNA sequences for an origin of replication, a promoter located in front of the gene to be expressed, a ribosome binding site, an RNA splice site, a polyadenylation site, and a transcription terminator site.

[0087] Promoters used in mammalian expression vectors are often of viral origin. These viral promoters are commonly derived from polyoma virus, Adenovirus 2, and most frequently Simian Virus 40 (SV40). The SV40 virus contains two promoters that are termed the early and late promoters. These promoters are particularly useful because they are both easily obtained from the virus as one DNA fragment that also contains the viral origin of replication (Fiers et al., Nature 273:113, 1978). Smaller or larger SV40 DNA fragments may also be used, provided they contain the approximately 250-bp sequence extending from the HindIII site toward the BglI site located in the viral origin of replication.

[0088] Alternatively, promoters that are naturally associated with the foreign gene (homologous promoters) may be used provided that they are compatible with the host cell line selected for transformation.

[0089] An origin of replication may be obtained from an exogenous source, such as SV40 or other virus (e.g., Polyoma, Adeno, VSV, BPV) and inserted into the cloning vector. Alternatively, the origin of replication may be provided by the host cell chromosomal replication mechanism. If the vector containing the foreign gene is integrated into the host cell chromosome, the latter is often sufficient.

[0090] The use of a secondary DNA coding sequence can enhance production levels of recombinant protein in transformed cell lines. The secondary coding sequence typically comprises the enzyme dihydrofolate reductase (DHFR). The wild-type form of DHFR is normally inhibited by the chemical methotrexate (MTX). The level of DHFR expression in a cell will vary depending on the amount of MTX added to the cultured host cells. An additional feature of DHFR that makes it particularly useful as a secondary sequence is that it can be used as a selection marker to identify transformed cells. Two forms of DHFR are available for use as secondary sequences, wild-type DHFR and MTX-resistant DHFR. The type of DHFR used in a particular host cell depends on whether the host cell is DHFR deficient (such that it either produces very low levels of DHFR endogenously, or it does not produce functional DHFR at all). DHFR-deficient cell lines such as the CHO cell line described by Urlaub and Chasin, supra, are transformed with wild-type DHFR coding sequences. After transformation, these DHFR-deficient cell lines express functional DHFR and are capable of growing in a culture medium lacking the nutrients hypoxanthine, glycine and thymidine. Nontransformed cells will not survive in this medium.

[0091] The MTX-resistant form of DHFR can be used as a means of selecting for transformed host cells in those host cells that endogenously produce normal amounts of functional DHFR that is MTX sensitive. The CHO-K1 cell line (ATCC No. CL 61) possesses these characteristics, and is thus a useful cell line for this purpose. The addition of MTX to the cell culture medium will permit only those cells transformed with the DNA encoding the MTX-resistant DHFR to grow. The nontransformed cells will be unable to survive in this medium.

[0092] Prokaryotes may also be used as host cells for the initial cloning steps of this invention and/or to express the proteins of the invention. They are particularly useful for rapid production of large amounts of DNA, for production of single-stranded DNA templates used for site-directed mutagenesis, for screening many mutants simultaneously, and for DNA sequencing of the mutants generated. Suitable prokaryotic host cells include E. coli K12 strain 94 (ATCC No. 31,446), E. coli strain W3110 (ATCC No. 27,325) E. coli X1776 (ATCC No. 31,537), and E. coli B; however many other strains of E. coli, such as HB101, JM101, NM522, NM538, NM539, and many other species and genera of prokaryotes including bacilli such as Bacillus subtilis, other enterobacteriaceae such as Salmonella typhimurium or Serratia marcesans, and various Pseudomonas species may all be used as hosts. Prokaryotic host cells or other host cells with rigid cell walls are preferably transformed using the calcium chloride method as described in section 1.82 of Sambrook et al., supra. Alternatively, electroporation may be used for transformation of these cells. Prokaryote transformation techniques are set forth in Dower, W. J., in Genetic Engineering, Principles and Methods 12:275-296, Plenum Publishing Corp. (1990); Hanahan et al., Meth. Enzymol. 204:63, 1991.

[0093] As a representative example, cDNA sequences encoding proteins of the invention may be transferred to the (His)₆.Tag pET vector commercially available (from Novagen, Madison Wis.) for overexpression in E. coli as heterologous host. This pET expression plasmid has several advantages in high level heterologous expression systems. The desired cDNA insert is ligated in frame to plasmid vector sequences encoding six histidines followed by a highly specific protease recognition site (thrombin) that are joined to the amino terminus codon of the target protein. The histidine “block” of the expressed fusion protein promotes very tight binding to immobilized metal ions and permits rapid purification of the recombinant protein by immobilized metal ion affinity chromatography. The histidine leader sequence is then cleaved at the specific proteolysis site by treatment of the purified protein with thrombin, and the expressed protein again purified by immobilized metal ion affinity chromatography, this time using a shallower imidazole gradient to elute the recombinant synthases while leaving the histidine block still adsorbed. This overexpression-purification system has high capacity, excellent resolving power and is fast, and the chance of a contaminating E. coli protein exhibiting similar binding behavior (before and after thrombin proteolysis) is extremely small.

[0094] As will be apparent to those skilled in the art, any plasmid vectors containing replicon and control sequences that are derived from species compatible with the host cell may also be used in the practice of the invention. The vector usually has a replication site, marker genes that provide phenotypic selection in transformed cells, one or more promoters, and a polylinker region containing several restriction sites for insertion of foreign DNA. Plasmids typically used for transformation of E. coli include pBR322, pUC18, pUC19, pUCI18, pUC119, and Bluescript M13, all of which are described in sections 1.12-1.20 of Sambrook et al., supra. However, many other suitable vectors are available as well. These vectors contain genes coding for ampicillin and/or tetracycline resistance which enables cells transformed with these vectors to grow in the presence of these antibiotics.

[0095] The promoters most commonly used in prokaryotic vectors include the β-lactamase (penicillinase) and lactose promoter systems (Chang et al. Nature 375:615, 1978; Itakura et al., Science 198:1056, 1977; Goeddel et al., Nature, 281:544, 1979) and a tryptophan (trp) promoter system (Goeddel et al., Nucl. Acids Res. 8:4057, 1980; EPO Appl. Publ. No. 36,776), and the alkaline phosphatase systems. While these are the most commonly used, other microbial promoters have been utilized, and details concerning their nucleotide sequences have been published, enabling a skilled worker to ligate them functionally into plasmid vectors (see Siebenlist et al., Cell 20:269, 1980).

[0096] Trafficking sequences from plants, animals and microbes can be employed in the practice of the invention to direct the proteins of the present invention to the cytoplasm, endoplasmic reticulum, mitochondria or other cellular components, or to target the protein for export to the medium. Many eukaryotic proteins normally secreted from the cell contain an endogenous secretion signal sequence as part of the amino acid sequence. Thus, proteins normally found in the cytoplasm can be targeted for secretion by linking a signal sequence to the protein. This is readily accomplished by ligating DNA encoding a signal sequence to the 5′ end of the DNA encoding the protein and then expressing this fusion protein in an appropriate host cell. The DNA encoding the signal sequence may be obtained as a restriction fragment from any gene encoding a protein with a signal sequence. Thus, prokaryotic, yeast, and eukaryotic signal sequences may be used herein, depending on the type of host cell utilized to practice the invention. The DNA and amino acid sequence encoding the signal sequence portion of several eukaryotic genes including, for example, human growth hormone, proinsulin, and proalbumin are known (see Stryer, Biochemistry W.H. Freeman and Company, New York, N.Y., p. 769 (1988)), and can be used as signal sequences in appropriate eukaryotic host cells. Yeast signal sequences, as for example acid phosphatase (Arima et al., Nuc. Acids Res. 11:1657, 1983), α-factor, alkaline phosphatase and invertase may be used to direct secretion from yeast host cells. Prokaryotic signal sequences from genes encoding, for example, LamB or OmpF (Wong et al., Gene 68:193, 1988), MalE, PhoA, or beta-lactamase, as well as other genes, may be used to target proteins from prokaryotic cells into the culture medium.

[0097] The construction of suitable vectors containing DNA encoding replication sequences, regulatory sequences, phenotypic selection genes and the DNA of interest are prepared using standard recombinant DNA procedures. Isolated plasmids and DNA fragments are cleaved, tailored, and ligated together in a specific order to generate the desired vectors, as is well known in the art (see, for example, Sambrook et al., supra).

[0098] The nucleic acid molecules of the present invention, such as the nucleic acid molecules having the sequences set forth in SEQ ID NOS:1-472 can also be used to generate probes for mapping the genome of plant species such as the peppermint plant (Mentha piperita) and its relatives. The probe may be mapped to a particular chromosome or to a specific region of a chromosome using well known techniques. These include in situ hybridization to chromosomal spreads, flow-sorted chromosomal preparations, or artificial chromosome constructions such as yeast artificial chromosomes (YACs), bacterial artificial chromosomes (BACs), bacterial PI constructions or single chromosome cDNA libraries.

[0099] In situ hybridization of chromosomal preparations and physical mapping techniques such as linkage analysis using established chromosomal markers are useful in extending genetic maps. Often the placement of a gene on the chromosome of another species may reveal associated markers. New partial nucleotide sequences can be assigned to chromosomal arms, or parts thereof, by physical mapping. This provides valuable information to investigators searching, for example, for plant disease genes using positional cloning or other gene discovery techniques. Once a plant disease has been localized by genetic linkage to a particular genomic region, any sequences mapping to that area may represent genes for further investigation. The nucleotide sequences of the subject invention may also be used to detect differences in the chromosomal location of nucleotide sequences due to such events as translocation and inversion.

[0100] In one representative approach for constructing a physical map of a plant genome, such as the peppermint plant genome, using the nucleic acid molecules of the present invention, genomic DNA is isolated from the plant species of interest and cleaved with one or more restriction enzymes. The resulting fragments are then cloned and mapped as follows. The first stage of the procedure involves a “fingerprinting” procedure for the identification of overlaps between clones. Clones are picked at random, fingerprinted and assembled into overlapping sets referred to as contigs. In the second stage, clones are selected by hybridization using probes from the ends of contigs, unattached clones and yeast artificial chromosome (YAC) libraries to fill in the gaps.

[0101] The fingerprints are generated by digesting randomly selected clones from primary libraries with one to several restriction enzymes. Following size fractionation by gel electrophoresis (either agarose or polyacrylamide), the lengths of the fragments are determined. The number and the size of the fragments constitute a unique signature or fingerprint of the cloned insert. For fingerprinting, it is unnecessary to generate a restriction map of the clone. The bands must however be descriptive of the insert and the informational content of the fingerprint must be sufficient to make a reliable assignment of overlapping regions. Clones are said to be overlapping when the fingerprints of two clones are sufficiently similar.

[0102] The fingerprinting protocols described herein are based on the methodologies of Coulson, A. et al. “Toward a physical map of the nematode Caenorhabditis elegans” Proc Natl Acad. Sci. USA 83:7821-7825, 1986. In brief, cloned DNAs are digested with a restriction enzyme having a 6 bp specificity which leaves staggered ends which are simultaneously labeled with reverse transcriptase and the appropriate nucleoside triphosphates. The reactions are terminated by high temperature and the fragments are subjected to a second round of cleavage with a restriction enzyme having a 4 bp specificity. The resultant fragments are size-fractionated, for example on a denaturing 4% polyacrylamide gel. The positions of the bands are typically entered into a computer using a scanning densitometer and an image-processing package, such as those described in Sulston et al. “Software for genome mapping by fingerprinting techniques” Comput. Applic. Biosci. 4:125-132, 1988; Sulston et al. “Image analysis of restriction enzyme fingerprint autoradiograms” Computer Applic. BioSci. 5:101-106, 1989, both of which publications are incorporated herein by reference.

[0103] Once the banding patterns of individual clones are entered into the computer, or are otherwise recorded, they are then compared in a pairwise fashion against the entire data set. The output is a ranked order of the most probable matches. Based on these numbers, the regions of probable overlap are determined and the clones are assembled into contigs, for example by using the computer program disclosed in Coulson et al. “Toward a physical map of the nematode Caenorhabditis elegans” Proc Natl Acad. Sci USA 83:7821-7825, 1986. Before the clones are joined, the reliability of the match is assessed by visually aligning the films and the overlap must be logically consistent. Although the use of computers greatly facilitates the comparison of restriction pattern “fingerprints”, especially when the investigator is comparing the “fingerprints” of a large number of clones, the comparison can be done manually by visually comparing the “fingerprints” of individual clones.

[0104] One of the main considerations for choosing an enzyme or combination of enzymes is that the number of fragments generated is optimal for the statistical detection of overlapping regions. Preferably, it is desirable to use several combinations of enzymes because it is unlikely that a given clone will have a non-random distribution of restriction sites for all of the chosen enzymes.

[0105] By increasing the amount of information obtained from each clone, the rate of progress is greatly increased. A mathematical analysis of random clone fingerprinting by Lander and Waterman “Genomic mapping by fingerprinting random clones: a mathematical analysis” Genomics 2:231-239, 1988, shows that decreasing the minimal detectable overlap from 50 to 25% significantly speeds the progress of a project. Based on this analysis, it is desirable to use fingerprinting strategies which detect overlaps in the range of 15 to 20%.

[0106] In general, 8 to 10 genomic equivalents must be fingerprinted to achieve between 70 and 90% coverage of the genome. It is desirable, therefore, to automate as many steps of the process as possible, such as by the use of automatic data collection (see, e.g., Brenner and Livik “DNA fingerprinting by sampled sequencing” Proc Natl Acad. Sci USA 86:8902-8906, 1989; Carrano et al. “A high-resolution fluorescence-based, semiautomated method for DNA fingerprinting” Genomics 4:129-136, 1989) and by the use of commercially available automated DNA sequencers (Smith, L. M. et al. “Fluorescence detection in automated DNA sequence analysis” Nature 321:674-679, 1986).

[0107] Random fingerprinting procedures are not expected to produce complete physical maps. Instead, the map will consist of many contigs composed of two or more overlapping clones. As the project progresses, the number of contigs decreases as the gaps are closed. After this point, the rate of finding new contigs significantly decreases due to the scarcity of the remaining clones. Completion of the map then requires a directed approach since a prohibitively large number of clones would be required to close all of the gaps by random clone fingerprinting.

[0108] In addition to the statistical limitations, both the number and the size of the contigs generated by random clone mapping will be strongly influenced by any cloning biases which are encountered. At least two factors contribute to cloning bias: the inability to clone certain regions of the genome using a given host/vector system results in non-representative libraries and non-uniform growth of individual clones leading to sampling bias. To circumvent such problems, it is likely that multiple libraries and multiple host vector systems will be required.

[0109] Once the practical limit of random clone mapping is reached, success in completing a map depends largely on the ability to bridge the remaining gaps. The most viable option is to select the missing clones by hybridization. One approach for selecting linking clones is to make end-probes from unattached clones (ie., clones that have not yet been incorporated into the map) and clones residing at the end of the contigs. This approach is facilitated if it is possible to generate end-probes with minimal effort. The cosmid libraries are therefore preferably constructed in vectors containing convergent bacteriophage promoters (for example Sp6 and T7 promoters) flanking the insert. The end-clones and the unattached clones are picked into microtiter dishes and plated out onto nylon filters in ordered arrays. By probing the cosmid grids with mixed RNA probes (prepared from rows of clones) (Evans and Lewis “Physical mapping of complex genomes by cosmid multiplex analysis” Proc Natl Acad. Sci USA 86:5030-5034, 1989), overlaps which were not detected by fingerprint analysis can be established. The use of mixed end-probes is important when a large number of joins must be established since the number of hybridizations required is reduced by a factor of N, where N is the number of clones used to make the probes.

[0110] Missing clones may be either rare or non-existent in the cosmid libraries which were used for the random clone mapping. Therefore, the end-probes can also be used to probe additional libraries based on different host/vector systems. The use of different host/vector systems is intended to eliminate, or at least reduce, cloning bias. In particular, the hybridization to yeast artificial chromosome (YAC) clones is an important component for this analysis.

[0111] One of the most important new technical advances in molecular biology is the cloning of megabase-size DNA fragments using YAC vectors (Burke et al. “Cloning of large segments of exogenous DNA into yeast by means of artificial chromosome vectors” Science 236:806-812, 1987). The construction of YAC libraries involves the ligation of large DNA fragments (50-1000 kb) into a vector containing selectable markers and the functional components of a eukaryotic chromosome, i.e., ARS elements required for autonomous replication, the centromere which results in proper disjunction during meiosis and mitosis, and telomeres required for the replication of linear molecules (Murry and Szostak, “Construction of artificial chromosomes in yeast” Nature 305:189-193, 1983). The constructs are transformed into Saccharomyces cerevisiae where they are replicated along with the endogenous chromosomes. The large size of YAC clones means that fewer clones must be examined, and YACs offer the potential to give a random or at least different representation of clones than are obtained using bacterial host/vector systems.

[0112] A complementary approach to bridge the gaps is to use YAC clones as hybridization probes (Coulson et al. “Genome linking with yeast artificial chromosomes” Nature 335:184-186, 1988). The strategy is to prepare two sets of ordered grids: one of a representative YAC library and one of cosmids which is as representative as possible of both the contigs and unattached clones. The YACs are then separated from the host chromosomes by electrophoresis, isolated from the gel and used to make hybridization probes. The hybridization pattern of the cosmid grid is then used to establish linkage as well as the position of the YAC with respect to the ordered cosmids. Since a given YAC clone is expected to hybridize to several clones in the contig, the hybridization patterns must conform to the logic of the contig map thereby minimizing spurious linkage resulting from hybridization to interspersed repeats.

[0113] The YACs to be used as probes may be picked at random or, alternatively, selected from the YAC grid based on hybridization with cosmids as described above. One requirement of this approach is that the cosmid vectors have no significant homology to the YAC vectors. This permits the direct hybridization of the YACs to cosmids, and vice versa, thereby eliminating the need to first separate the insert from the vector sequences. The Lorist (Cross and Little, “A cosmid vector for systematic chromosome walking” Gene 49:9-22, 1986) series of cosmid vectors have been successfully used for this approach (Coulson et al. “Genome linking with yeast artificial chromosomes” Nature 335:184-186, 1988).

[0114] YAC clones may be used at the onset of physical mapping projects. Using existing technology it is possible to fingerprint YACs directly (Kuspa et al. “Physical mapping of the Myxococcus xanthus genome by random cloning in yeast artificial chromosomes” Proc Natl Acad. Sci USA 86:8917-8921, 1989). Moreover, the ability to easily generate end-probes from YACs using techniques such as inverse PCR (Ochman et al. “Genetic applications of an inverse polymerase chain reaction” Genetics 120:621-623, 1988) allows for the construction of physical maps based on hybridization strategies. It is unlikely, however, that YACs will supersede cosmid and λ clone maps since the smaller clones are generally required for routine procedures such as DNA sequencing and gene isolation.

[0115] The resulting physical map of a plant genome (such as the genome of the peppermint plant) is made up of numerous, overlapping DNA fragments and includes the location of restriction enzyme cleavage sites. One way to determine the position of genes of the present invention on the map is to use full-length, or partial length, cDNAs of the invention as probes with which to screen the individual, cloned genomic DNA fragments that were used to construct the map. Thus, for example, individual genomic clones can be digested with one or more restriction enzymes and the digestion products separated on an agarose gel by electrophoresis. The gel can be blotted and probed with radiolabelled cDNA molecules, for example utilizing the hybridization protocol set forth in Example 2 herein. In this way, the location of genes of the present invention (encoding one or more cDNAs of the invention) can be located on the plant genome physical map.

[0116] In accordance with the foregoing discussion of plant genome mapping, a representative protocol for physically mapping a plant genome is set forth in Example 5 herein.

[0117] The following examples merely illustrate the best mode now contemplated for practicing the invention, but should not be construed to limit the invention.

EXAMPLE 1 Construction and Analysis of a Peppermint Oil Gland cDNA Library

[0118] mRNA Isolation and cDNA Synthesis: A previously developed method for the isolation of mint oil glands (Gershenzon et al., Recent Adv. Phytochem. 25:347, 1991; Gershenzon et al., Anal. Biochem. 22:130, 1992), that was designed for pathway studies and protein isolation, was not suitable for the isolation of mRNA because of enzymatic and non-enzymatic degradation of nucleic acids (the unmodified protocol yielded no detectable, intact mRNA). Therefore, based upon systematic evaluation of RNA yield and quality by formaldehyde-agarose gel electrophoresis and in vitro translation using the wheat germ system (Titus, Promega Protocols and Application Guide, 2nd ed. (1991)), and by SDS-PAGE of the resulting proteins, the peppermint oil gland secretory cell RNA isolation protocol was modified and then optimized to prevent enzymatic and non-enzymatic degradation of RNA by the addition of 5 mM aurintricarboxylic acid (Gonzalez et al., Biochemistry 19:4299, 1980) and 1 mM thiourea (Van Driesscke et al., Anal. Biochem. 141:184, 19841) to the leaf inhibition solution and buffers utilized.

[0119] The resulting peppermint oil gland secretory cells, obtained by this new procedure, were frozen in liquid N₂, powdered with a mortar and pestle, and the RNA was extracted and isolated using a modification of the method of Logemann et al. (Anal. Biochem. 163:16, 1987). This altered protocol involves extraction with 8 M guanidine-HCl and then chloroform-phenol, followed by acid partitioning of DNA into the organic phase and ethanol (10% v/v) precipitation of polysaccharides, prior to precipitation of RNA, and was further modified by the addition of polyvinylpolypyrrolidone to the extraction buffer (Lewinsohn et al., Plant Mol. Biol. Rep. 12:20, 1994) to bind deleterious phenolic materials released during initial disruption of the purified gland cells.

[0120] mRNA was isolated by two rounds of oligo(dT)-cellulose column chromatography (Pharmacia Biotech), and the quality was assessed by in vitro translation. mRNA was isolated as set forth in Lewinsohn et al., Plant Molecular Biology Reporter 12(1):20-25, 1994, as modified by homogenization of the plant tissue in the presence of guanidine hydrochloride as set forth in Logemann et al., Analytical Biochemistry 163:16-20, 1987. Typically, 1 g of peppermint oil gland cells yields 0.5-1.0 mg of total RNA from which 1-2% of good quality poly(A)⁺ RNA can be isolated. cDNA synthesis from 5 μg purified mRNA and construction of the λZAPII cDNA expression library were carried out with a commercial kit (Stratagene, La Jolla, Calif.).

[0121] DNA Sequencing: The cDNA clones were excised as Bluescript SK (−) phagemids in the bacterial host strain SOLR (Stratagene, La Jolla, Calif.) according to the in vivo excision protocol supplied by Stratagene. Aliquots of the library were plated onto Luria Bertani agar containing 100 μg/ml ampicillin. Single colonies were randomly picked and grown at 37° C. in 4 ml cultures. Plasmid DNA was extracted using the QIAwell 8 Plus Plasmid Kit from Qiagen (Valencia, Calif.), and Taq polymerase cycle sequencing reactions were performed using DyeTerminator Cycle Sequence Ready Reaction with AmpliTaq FS (Catalogue No. 402122, Perkin Elmer, Norwalk, Conn.) and T3 primer. For automated sequence analysis, a model 373 sequencer (Applied Biosystems) was used.

[0122] Sequence Analysis And Functional Assignment: Sequences were edited manually to remove contaminants originating from the vector and to discard poor quality 3′ sequence. Sequence comparisons against the genBank non-redundant protein database were performed using the BLASTX algorithm (Altschul et al., J. Mol. Biol. 215:403, 1990). A match was declared when the score was higher than 120 (optimized similarity score), with 65% sequence identity over a minimum of 30 deduced amino acid residues. Sequences were then grouped, where appropriate, into sequence clusters using the TIGR assembler (Sutton et al., Genome Sci. Technol., 1:9-19, 1995). In addition, the sequences of each overlapping fragment were aligned using the fragment assembly program of the Wisconsin Sequence Analysis Package 9 (Genetics Computer Group, Wisconsin; based on the method of Staden (Nucl. Acids Res. 8:3673, 1980)), and consensus sequences were generated with 90% identity over a minimum of 40 nucleotides. Uppercase bases were used where that base occurs in greater than two-thirds of the aligned sequences.

[0123] Assignment of Putative Function: The cDNA molecules isolated from the peppermint oil gland cDNA library were grouped into six groups. A first group includes cDNAs encoding proteins that may be involved in the deoxyxylulose-5-phosphate pathway which produces isopentenyl diphosphate (IPP) as the central precursor of terpenoid essential oils. Table 1 identifies members of the first group of nucleic acid molecules of the present invention. The sequences included in Table 1 (and in subsequent Tables 2-5) are set forth in the sequence listing. As used in the sequence listing, the letter “n” or “N” represents an unknown nucleotide, i.e., sequencing of the cDNA molecule did not unambiguously identify the nucleotide represented by the letter “n” or “N”. TABLE 1 PUTATIVE PROTEINS OF THE DEOXYXYLULOSE-5-PHOSPHATE PATHWAY SEQUENCE FUNCTIONAL ASSIGNMENT IDENTIFIER 1. Aldo-Keto Reductase Homologs 1.1 AKR 1 ML 444 SEQ ID NO: 1 1.2 AKR 2 ML 437 SEQ ID NO: 2 2. Putative Kinase ML 100 SEQ ID NO: 3

[0124] A second group of sequences includes terpene synthases, a selection of oxidoreductases, cytochrome P₄₅₀-dependent oxidoreductases, putative acyltransferases and putative glucosyltransferases which are likely involved in secondary transformation reactions leading to the terpenoid end products of mint essential oils. Table 2 identifies members of the second group of nucleic acid molecules of the present invention. TABLE 2 GROUP 2: TERPENE METABOLISM SEQUENCE FUNCTIONAL ASSIGNMENT IDENTIFIER 1. Terpene Synthases 1.1 Monoterpene Synthases 1.1.1 MS 1 ML 1128 SEQ ID NO: 4 1.1.2 MS 2 ML 945 SEQ ID NO: 5 1.1.3 MS 3 ML 988 SEQ ID NO: 6 1.1.4 MS 4 ML 127 SEQ ID NO: 7 1.1.5 MS 5 ML 343 SEQ ID NO: 8 1.1.6 MS 6 ML 465 SEQ ID NO: 9 1.2 Sesquiterpene Synthases 1.2.1 SS 1 ML 747 SEQ ID NO: 10 1.2.2 SS 2 ML 515 SEQ ID NO: 11 1.2.3 SS 3 ML 757 SEQ ID NO: 12 1.2.4 SS 4 ML 129 SEQ ID NO: 13 1.3 Diterpene Synthases 1.3.1 DS 1 ML 1426 SEQ ID NO: 14 1.3.2 DS 2 ML 458 SEQ ID NO: 15 1.3.3 DS 3 ML 533 SEQ ID NO: 16 2. Oxidoreductases 2.1 Carbonyl Reductase Homologs 2.1.1 CR 1 ML 840 SEQ ID NO: 17 2.1.2 CR 2 ML 472 SEQ ID NO: 18 2.2 NADPH-Dependent Reductase Homologs 2.2.1 NDR 1 ML 104 SEQ ID NO: 19 2.2.2 NDR 2 ML 186 SEQ ID NO: 20 2.3 NADPH-Dependent Oxidoreductase (zeta-cryst.) 2.3.1 NDO 1 ML 665 SEQ ID NO: 21 2.3.2 NDO 2 ML 503 SEQ ID NO: 22 2.3.3 NDO 3 ML 1035 SEQ ID NO: 23 2.3.4 NDO 4 ML 1251 SEQ ID NO: 24 2.3.5 NDO 5 ML 1377 SEQ ID NO: 25 2.3.6 NDO 6 ML 194 SEQ ID NO: 26 2.3.7 NDO 7 ML 766 SEQ ID NO: 27 2.4 Alcohol Dehydrogenase Homologs 2.4.1 ADH 1 ML 1026 SEQ ID NO: 28 2.4.2 ADH 2 ML 417 SEQ ID NO: 29 2.4.3 ADH 3 ML 524 SEQ ID NO: 30 2.4.4 ADH 4 ML 541 SEQ ID NO: 31 2.5 NADH Ubiquinone Oxidoreductase Homologs 2.5.1 NUO 1 ML 742 SEQ ID NO: 32 2.5.2 NUO 2 ML 234 SEQ ID NO: 33 2.5.3 NUO 3 ML 365 SEQ ID NO: 34 2.5.4 NUO 4 ML 68 SEQ ID NO: 35 2.6 Epoxide Hydrolase Homologs 2.6.1 EH 1 ML 212 SEQ ID NO: 36 2.6.2 EH 2 ML 1211 SEQ ID NO: 37 2.7 NADH Dehydrogenase Homologs 2.7.1 NDH 1 ML 1106 SEQ ID NO: 38 2.7.2 NDH 2 ML 1369 SEQ ID NO: 39 2.7.3 NDH 3 ML 957 SEQ ID NO: 40 2.8 Aldehyde Dehydrogenase Homolog 2.8.1 ALDDH 1 ML 1108 SEQ ID NO: 41 2.9 Oxidoreductase Homologs 2.9.1 OXRED 1 ML 167 SEQ ID NO: 42 2.9.2 OXRED 2 ML 334 SEQ ID NO: 43 2.9.3 OXRED 3 ML 438 SEQ ID NO: 44 2.9.4 OXRED 4 MW 348 SEQ ID NO: 45 2.9.5 OXRED 5 ML 383 SEQ ID NO: 46 2.10 Ribitol Dehydrogenase Homologs 2.10.1 RDH 1 ML 347 SEQ ID NO: 47 2.11 Mandelonitrile Lyase Homologs 2.11.1 MNL 1 ML 875 SEQ ID NO: 48 2.11.2 MNL 2 ML 504 SEQ ID NO: 49 3. Cytochrome P₄₅₀-Dependent Oxidoreductases 3.1 Soybean Cytochrome P₄₅₀ Homologs 3.1.1 CYT 1 ML 1132 SEQ ID NO: 50 3.1.2 CYT 2 ML 1374 SEQ ID NO: 51 3.1.3 CYT 3 ML 139 SEQ ID NO: 52 3.1.4 CYT 4 ML 272 SEQ ID NO: 53 3.1.5 CYT 5 ML 868 SEQ ID NO: 54 3.1.6 CYT 6 ML 962 SEQ ID NO: 55 3.2 Nepeta Cytochrome P₄₅₀ Homologs 3.2.1 CYT 7 ML 196 SEQ ID NO: 56 3.2.2 CYT 8 ML 277 SEQ ID NO: 57 3.2.3 CYT 9 ML 367 SEQ ID NO: 58 3.2.4 CYT 10 ML 397 SEQ ID NO: 59 3.2.5 CYT 11 MW 326 SEQ ID NO: 60 3.3 Arabidopsis Cytochrome P₄₅₀ Homologs 3.3.1 CYT 12 ML 273 SEQ ID NO: 61 3.3.2 CYT 13 MW 372 SEQ ID NO: 62 3.4 Mentha Cytochrome P₄₅₀ Homologs 3.4.1 CYT 14 ML 307 SEQ ID NO: 63 3.4.2 CYT 15 ML 1425 SEQ ID NO: 64 3.5 Solanum Cytochrome P₄₅₀ Homologs 3.5.1 CYT 16 ML 857 SEQ ID NO: 65 4. Putative Acyltransferases (BEAT Homologs) 4.1 AT 1 ML 1304 SEQ ID NO: 66 4.2 AT 2 ML 774 SEQ ID NO: 67 5. Putative Glucosyltransferases 5.1 GT 1 ML 970 SEQ ID NO: 68 5.2 GT 2 ML 197 SEQ ID NO: 69 5.3 GT 3 ML 1163 SEQ ID NO: 70 5.4 GT 4 ML 772 SEQ ID NO: 71

[0125] A third group of sequences includes cDNAs encoding transcription factors and other regulatory proteins, which may be part of the developmental and biosynthetic machinery of oil glands. Table 3 identifies members of the third group of nucleic acid molecules of the present invention. TABLE 3 TRANSCRIPTION FACTORS AND REGULATORY PROTEINS SEQUENCE FUNCTIONAL ASSIGNMENT IDENTIFIER 1. CA 150 Homolog ML 778 SEQ ID NO: 72 2. CREB-Binding Homolog ML 1040 SEQ ID NO: 73 3. BRAHMA Homolog ML 141 SEQ ID NO: 74 4. Homeobox Protein Homolog ML 163 SEQ ID NO: 75 5. MADS Box Homologs 5.1 MB 1 ML 1145 SEQ ID NO: 76 5.2 MB 2 ML 1311 SEQ ID NO: 77 6. b-ZIP Homolog ML 1205 SEQ ID NO: 78 7. ZTP 3-3 Homolog ML 346 SEQ ID NO: 79 8. CPM 10 (MYB) Homolog ML 407 SEQ ID NO: 80 9. APETALA 2 Homolog ML 929 SEQ ID NO: 81 10. ALY (Coactivator) Homolog ML 978 SEQ ID NO: 82 11. ELONGATED HYPOCOTYL ML 1004 SEQ ID NO: 83 Homolog 12. Transcription Factor Homolog ML 1023 SEQ ID NO: 84 (AC005397) 13. Transcription Factor Homolog ML 921 SEQ ID NO: 85 (AL031824) 14. Ring H₂ Zink-Finger Homologs 14.1 ZF 1 ML 512 SEQ ID NO: 86 14.2 ZF 2 ML 1057 SEQ ID NO: 87 15. Transcription Factor Homolog ML 1107 SEQ ID NO: 88 (X97907) 16. Ethylene-Induced DNA Binding ML 951 SEQ ID NO: 89 Protein Homolog 17. LETHAL LEAF SPOT Homolog ML 1323 SEQ ID NO: 90 18. LYT B Homologs 18.1 LYTB 1 ML 320 SEQ ID NO: 91 18.2 LYTB 2 ML 78 SEQ ID NO: 92 18.3 LYTB 3 ML 433 SEQ ID NO: 93 18.4 LYTB 4 ML 70 SEQ ID NO: 94 19. Myb-Related Transcription Factor ML 160 SEQ ID NO: 95 Homolog 20. Homeodomain-Like Protein ML 1407 SEQ ID NO: 96 Homolog 21. P Transcription Factor Homolog ML 247 SEQ ID NO: 97 22. 14-3-3 G-Box Factor Homolog ML 684 SEQ ID NO: 98 23. COM AB Homolog ML 987 SEQ ID NO: 99

[0126] A fourth group of sequences includes cDNAs encoding enzymes that may be involved in signal transduction and transport processes occurring during the trafficking and secretion of terpenoid essential oils in glandular trichomes. Table 4 identifies members of the fourth group of nucleic acid molecules of the present invention. TABLE 4 TRANSPORT AND SIGNAL TRANSDUCTION SEQUENCE FUNCTIONAL ASSIGNMENT IDENTIFIER 1. Progesterone Binding Protein Homologs 1.1 PBP 1 ML 1292 SEQ ID NO: 100 1.2 PBP 2 ML 584 SEQ ID NO: 101 1.3 PBP 3 ML 1359 SEQ ID NO: 102 1.4 PBP 4 ML 590 SEQ ID NO: 103 2. ST12P Homolog ML 124 SEQ ID NO: 104 3. Probable Sugar Carrier Protein ML 137 SEQ ID NO: 105 Homolog 4. Probable Hexose Carrier Protein ML 692 SEQ ID NO: 106 Homolog 5. ABC Transporter Homolog ML 767 SEQ ID NO: 107 6. Probable Transporter Protein ML 1016 SEQ ID NO: 108 Homolog 7. Sec13 Protein tTransport Protein ML 1025 SEQ ID NO: 109 Homolog 8. Secretory Carrier Membrane ML 332 SEQ ID NO: 110 Protein Homolog 9. Putative White Protein Homologs 9.1 WP 1 ML 593 SEQ ID NO: 111 9.2 WP 2 ML 1253 SEQ ID NO: 112 10. Putative Receptor Homolog ML 86 SEQ ID NO: 113 11. B2 Protein Homolog ML 245 SEQ ID NO: 114 12. Protein Transport Protein Homolog MW 360 SEQ ID NO: 115 13. 33 kDa Putative Secretory Protein ML 853 SEQ ID NO: 116 Homolog 14. Putative Transport Inhibitor Response Protein Homologs 14.1 TIRP 1 ML 166 SEQ ID NO: 117 14.2 TIRP 2 ML 850 SEQ ID NO: 118

[0127] A fifth group of nucleic acid molecules of the present invention includes DNA sequences that encode portions of proteins of diverse, putative function. Table 5 identifies members of the fifth group of nucleic acid molecules of the present invention. TABLE 5 FUNCTIONAL ASSIGNMENT SEQUENCE IDENTIFIER aspartate aminotransferase mw378.dat SEQ ID NO: 119 serine hydroxymethyltransferase ml1247.con SEQ ID NO: 120 ml399.con SEQ ID NO: 121 ferredoxin-like protein ml464.dat SEQ ID NO: 122 Thioredoxin-like proteins ml1047.con SEQ ID NO: 123 ml185.con SEQ ID NO: 124 mw322.con SEQ ID NO: 125 Glutaredoxin-like proteins ml1100.dat SEQ ID NO: 126 ml1295.dat SEQ ID NO: 127 Water stress-inducible protein mw330.dat SEQ ID NO: 128 ml1414.dat SEQ ID NO: 129 Apospory-related protein ml144.dat SEQ ID NO: 130 Auxin-repressed protein ml388.dat SEQ ID NO: 131 pop3 peptide homolog ml598.dat SEQ ID NO: 132 ml1202.da SEQ ID NO: 133 ml1237.dat SEQ ID NO: 134 Aluminum-induced protein ml268.dat SEQ ID NO: 135 Drought-induced protein ml542.dat SEQ ID NO: 136 Hypersensitivity-related protein ml573.dat SEQ ID NO: 137 SRC 1 Homolog ml648.dat SEQ ID NO: 138 ml1234.dat SEQ ID NO: 139 Cold acclimation protein ml728.dat SEQ ID NO: 140 Putative argonaute protein ml887.dat SEQ ID NO: 141 Symbiosis-related protein ml467.dat SEQ ID NO: 142 ml1313.dat SEQ ID NO: 143 Photoassimilate-responsive protein ml1338.dat SEQ ID NO: 144 Jasmonate-inducible protein ml1416.dat SEQ ID NO: 145 ABA-responsive protein ml424.dat SEQ ID NO: 146 Membrane protein ml843.dat SEQ ID NO: 147 Dehydration-responsive protein ml1094.dat SEQ ID NO: 148 ml1283.dat SEQ ID NO: 149 Seed-imbibition protein ml130.dat SEQ ID NO: 150 ml522.dat SEQ ID NO: 151

[0128] A sixth group of nucleic acid molecules of the present invention includes DNA sequences that encode portions of proteins for which a putative function has not been assigned.

EXAMPLE 2 Hybridization Protocol

[0129] The hybridization protocol set forth in this Example is useful, for example, for identifying nucleic acid molecules that hybridize, under stringent hybridization conditions, to one or more of the nucleic acid molecules (or to their complements) that are set forth in SEQ ID NOS:1-472. The hybridization protocol can be used, for example, to screen a cDNA library on a nitrocellulose filter or nylon membrane, and/or to isolate full-length cDNA molecules of the present invention utilizing partial-length cDNA molecules as probes.

[0130] Prehybridization solution should be prepared and filtered through a 0.45-micron disposable cellulose acetate filter. The composition of the prehybridization solution is 6×SSC, 5× Denhardt's reagent, 0.5% SDS, 100 μg/ml denatured, fragmented salmon sperm DNA, 50% formamide (alternatively, the formamide may be omitted). When ³²P-labeled cDNA or RNA is used as a probe, poly(A)+ RNA at a concentration of 1 μg/ml may be included in the prehybridization and hybridization solutions to prevent the probe from binding to T-rich sequences that are found fairly commonly in eukaryotic DNA.

[0131] Float the nitrocellulose filter or nylon membrane containing the target DNA on the surface of a tray of 6×SSC until it becomes thoroughly wetted from beneath. Submerge the filter for 2 minutes. Slip the wet filter into a heat-sealable bag. Add 0.2 ml of prehybridization solution for each square centimeter of nitrocellulose filter or nylon membrane.

[0132] Squeeze as much air as possible from the bag. Seal the open end of the bag with a heat sealer. Incubate the bag for 1-2 hours submerged at the appropriate temperature (65° C. for aqueous solutions; 42° C. for solutions containing 50% formamide). It is desirable to agitate the bag during prehybridization.

[0133] If the radiolabeled probe is double-stranded, denature it by heating for 5 minutes at 100° C. Single-stranded probe need not be denatured. Chill the denatured probe rapidly in ice water. Ideally, probe having a specific activity of 109 cpm/μg, or greater, should be used. Typically, hybridization is carried out for 6-8 hours using 1-2 μg/ml radiolabeled probe.

[0134] Working quickly, remove the bag containing the filter from the water bath. Open the bag by cutting off one corner with scissors. Add the denatured probe to the prehybridization solution, and then squeeze as much air as possible from the bag. Reseal the bag with the heat sealer so that as few bubbles as possible are trapped in the bag. To avoid radioactive contamination of the water bath, the resealed bag should be sealed inside a second, noncontaminated bag.

[0135] When using nylon membranes, the prehybridization solution should be completely removed from the bag and immediately replaced with hybridization solution. The probe is then added and the bag is resealed. Hybridization solution for nylon membranes includes 6×SSC, 0.5% SDS, 100 μg/ml denatured, fragmented salmon sperm DNA, and optionally 50% formamide if hybridization is to be carried out at 42° C. Incubate the bag submerged in a water bath set at the appropriate temperature for the required period of hybridization (for example, twelve hours). Wearing gloves, remove the bag from the water bath and immediately cut off one corner. Pour out the hybridization solution into a container suitable for disposal, and then cut the bag along the length of three sides. Remove the filter and immediately submerge it in a tray containing several hundred milliliters of 2×SSC and 0.5% SDS at room temperature. The filter should not be allowed to dry out at any stage during the washing procedure.

[0136] After 5 minutes, transfer the filter to a fresh tray containing several hundred milliliters of 2×SSC and 0.1% SDS and incubate for 15 minutes at room temperature with occasional gentle agitation. The filter should then be washed under the desired, stringent wash conditions. After washing remove most of the liquid from the filter by placing it on a pad of paper towels. Place the damp filter on a sheet of Saran Wrap. Apply adhesive dot labels marked with radioactive ink to several asymmetric locations on the Saran Wrap. These markers serve to align the autoradiograph with the filter. Cover the labels with Scotch Tape. This prevents contamination of the film holder or intensifying screen with the radioactive ink. Radioactive ink is made by mixing a small amount of ³²P with waterproof black drawing ink. Use a fiber-tip pen to apply ink to the adhesive labels.

[0137] Cover the filter with a second sheet of Saran Wrap, and expose the filter to X-ray film (Kodak XAR-2 or equivalent) to obtain an autoradiographic image. The exposure time should be determined empirically.

EXAMPLE 3 Screening a cDNA Expression Library

[0138] This method is used to transfer many bacterial colonies simultaneously from the surface of an agar plate to a nitrocellulose filter. The method works with bacterial colonies of any size, but small colonies (0.1-0.2 mm) give the best results: They produce sharper signals and smear less than larger colonies. As many as 2×10⁴ colonies per 150-mm plate can be screened by this technique. Colonies containing expression vectors carrying the lac promoter should be grown at 37° C. Colonies containing expression vectors carrying the bacteriophage λ p_(R) promoter should be grown at 30° C. to prevent the expression of fusion proteins.

[0139] After the bacterial colonies have grown to a diameter of 0.1-0.2 mm, remove the plate from the incubator and store it for 1-2 hours at 4° C. in an inverted position. Label a dry, sterile nitrocellulose filter (Millipore HAWP or equivalent) with a soft-lead pencil or ballpoint pen and place it, numbered side down, on the surface of the agar medium, in contact with the bacterial colonies, until it is completely wet. Mark the filter in at least three asymmetric locations by stabbing through it and into the agar underneath with an 18-gauge needle attached to a syringe containing waterproof black ink.

[0140] To induce the expression of a gene cloned into a plasmid carrying the lac promoter, transfer the filter, numbered side up, to a fresh agar plate containing isopropylthio-β-D-galactoside (IPTG). Incubate the plate for 2-4 hours at 37° C. To induce synthesis in expression vectors that carry the bacteriophage λ p_(R) promoter (e.g., the pEX vectors), transfer the filter to a prewarmed plate and incubate for 2-4 hours at 42° C. Remove the filter, and process it for immunological screening as described below. Incubate the master plate for 6 hours at 37° C. (or 30° C.) to allow the colonies to regenerate. Wrap the plate in Saran Wrap and store it at 4° C. in an inverted position until the results of immunological screening are available.

[0141] Using blunt-ended forceps (e.g., Millipore forceps), remove the nitrocellulose filters from the plates and place them on damp paper towels. Cover the filters with a plastic hood. Place in the plastic hood an open glass petri dish containing chloroform. Expose the bacterial colonies on the filters to chloroform vapor for 15 minutes.

[0142] Transfer small groups of filters to petri dishes containing lysis buffer (6 ml per 82-mm filter; 12 ml per 138-mm filter). When all of the filters have been submerged, stack the petri dishes on a rotary platform and agitate the lysis buffer by gentle rotation of the platform. Lysis of the bacterial colonies takes 12-16 hours at room temperature. The composition of lysis buffer is as follows: 100 mM Tris.Cl (pH 7.8), 150 mM NaCl, 5 mM MgCl₂, 1.5% bovine serum albumin, 1 μg/ml pancreatic DNAase I, 40 μg/ml lysozyme.

[0143] Transfer the filters to petri dishes or glass trays containing TNT. Incubate for 30 minutes at room temperature. The composition of TNT is as follows: 10 mM Tris.Cl (pH 8.0), 150 mM NaCl and 0.05% Tween 20. Repeat using fresh TNT. Transfer the filters, one by one, to a glass tray containing TNT. Use Kimwipes to wipe off the residue of the colonies from the surfaces of the filters. Do not allow the filters to dry during any of the subsequent steps.

[0144] When all of the filters have been removed and rinsed, transfer them one at a time to a fresh batch of TNT. When all of the filters have been transferred, agitate the buffer gently for a further 30 minutes at room temperature. If so desired, the filters may be removed from the buffer at this stage, wrapped in Saran Wrap, and stored for up to 24 hours at 4° C. Using blunt-ended forceps, transfer the filters individually to glass trays or petri dishes containing blocking buffer (i.e., 20% fetal bovine serum in TNT, use 7.5 ml for each 82-mm filter; 15 ml for each 138-mm filter). When all of the filters have been submerged, agitate the buffer slowly on a rotary platform for 30 minutes at room temperature.

[0145] Using blunt-ended forceps, transfer the filters to fresh glass trays or petri dishes containing the primary antibody diluted in blocking buffer (7.5 ml for each 82-mm filter; 15 ml for each 138-mm filter). Use the highest dilution of antibody that gives acceptable background yet still allows detection of 50-100 pg of denatured antigen. When all of the filters have been submerged, agitate the solutions gently on a rotary platform for 2-4 hours at room temperature. The antibody solution can be stored at 4° C. and reused several times. Sodium azide should be added to a final concentration of 0.05% to inhibit the growth of microorganisms.

[0146] Wash the filters for 10 minutes in each of the following buffers in the order given. Transfer the filters individually from one buffer to the next. Use 7.5 ml of each buffer for each 82-mm filter and 15 ml for each 138-mm filter. TNT+0.1% bovine serum albumin, followed by TNT+0.1% bovine serum albumin+0.1% Nonidet P-40, followed by TNT+0.1% bovine serum albumin.

[0147] Detect the antigen-antibody complexes with the radiochemical or chromogenic reagent of choice. For example, use approximately 1 μCi of ¹²⁵I-labeled protein A or immunoglobulin per filter. Radiolabeled protein A is available from commercial sources (sp. act. 30 mCi/mg). Radioiodinated second antibody can be prepared by art-recognized techniques, such as those set forth in Chapter 12 of Sambrook et al. (1989) Molecular Cloning: A Laboratory Manual, 2nd ed., Cold Spring Harbor Laboratory, Cold Spring Harbor, N.Y. Dilute radiolabeled ligands in blocking buffer (7.5 ml for each 82-mm filter; 15 ml for each 138-mm filter). Incubate the filters for 1 hour at room temperature, and then wash them several times in TNT before establishing autoradiographs.

EXAMPLE 4 Genetic Transformation of Peppermint

[0148] The procedure for genetically transforming peppermint (Mentha X piperita L.) is based on the procedure set forth in Niu et al., Plant Cell Reports 17:165-171, 1998, which publication is incorporated herein by reference.

[0149] Plant material and explant sources: in vitro shoot cultures of peppermint (Mentha X piperita L. var. Black Mitcham) plants are initiated from rhizome explants of peppermint plants maintained in a greenhouse. Shoots are obtained by stimulating axillary bud development from these explants. Typically, 3 to 6 weeks after initial culture shoots are of sufficient size to be used as leaf explants for regeneration or transformation experiments, or to be recultured for continued shoot proliferation.

[0150] Tissue culture and plant regeneration: Rhizome segments (1 cm) should be surface disinfected in a solution of 20% bleach (1.05% sodium hypochlorite) with Tween-20 (1 ml/liter of solution) for 20 min and then washed with sterile deionized water. The segments are placed onto the surface of a medium including the following basal constituents: Murashige and Skoog (MS) (Physiol. Plant 15:473-497, 1962) salts, 100 mg/liter myo-inositol, 0.4 mg/liter thiamine, 7.5 g/liter bacteriological grade agar and 30 g/liter sucrose, and 0.1 mg/liter N benzyladenine (BA). The medium should be adjusted to pH 5.8 prior to autoclave sterilization. Typically, shoots will elongate from the axillary buds in the rhizome after 3-4 weeks of culture. Shoots about 1 cm in height are recultured onto the same medium at 3- to 4-week intervals. Shoots (about 5-8 cm in height), at the end of a culture passage, are the source of leaf explants for genetic transformation.

[0151] Leaves (1 cm or less in length), including portions of the petioles, are excised from the proximal 5-cm region of the shoot. The leaves should be excised horizontally and the edges of the basal portion trimmed. These explants are placed onto the surface of shoot regeneration medium that contains the basal constituents and 25% coconut water, plus a cytokinin (pH 5.8). Thidiazuron is preferably utilized as a cytokinin for organogenesis. Explants or, subsequently, calli can be recultured at 2-week intervals. Callus develops about 5 weeks after culture initiation and shoots are visible shortly thereafter.

[0152] For shoot elongation and root initiation, isolated shoots (6-7 mm) are cultured onto rooting medium that contains the basal constituents and 0.01 mg/liter α-naphthaleneacetic acid (pH 5.8). Shoots are recultured every 2 weeks. Two culture passages are required for sufficient shoot elongation and two to three additional passages for sufficient root development to permit successful soil transplantation. Plants in soil are moved either to a growth chamber or a greenhouse and humidity should be gradually reduced to facilitate hardening.

[0153] Shoot cultures used as explant sources, or shoots in elongation or rooting stages of culture, can be maintained at 26° C. and 16 h photoperiod at 25 μmol m⁻²s⁻¹. Leaf explants on regeneration medium can be maintained in darkness at 26 C.

[0154]Agrobacterium transformation and kanamycin selection: Representative A. tumefaciens strains useful for transforming peppermint are LBA 4404 (Hoekema et al., Nature 303:179-180, 1983) and EHA 105 (Hood et al., Transgen. Res. 2:208-218, 1993). A representative binary vector plasmid useful for transforming peppermint is pBISN 1 (Narasimhulu et al., Plant Cell 8:873-886, 1996). This binary vector contains a neomycin phosphotransferase (nptII) marker gene for kanamycin selection. Agrobacterium strains can be grown at 30° C. on AB-sucrose minimal or YEP agar medium with 50 μg/ml of kanamycin and 10 μg/ml of rifampicin.

[0155] An overnight culture (5 ml YEP medium with 25 mg/liter kanamycin, 28° C.) is inoculated with a single Agrobacterium colony isolated from a freshly cultured plate. An aliquot of this culture is used to inoculate a new 50-ml culture that is grown at 28° C. for 3-4 hours to an OD₆₀₀ of 1.0. Entire leaves are submerged into Agrobacterium culture solution and basal portions (with petiole segments) are excised. Explants are additionally wounded by dissecting away the remaining margins of the leaf piece. The leaf explants are then incubated in the bacterial solution for 30 minutes, blotted briefly, and placed onto regeneration medium without antibiotics for a 4- to 5-day cocultivation period in darkness at 26° C. After cocultivation, the explants are washed with sterile water and then transferred to regeneration medium containing 2.0 mg/liter (8.4 μM) thidiazuron with 20 mg/liter kanamycin and 200 mg/liter Ticar (SmithKline Beecham Pharmaceuticals, Philadelphia, Pa.) for selection of transformed plant cells and inhibition of bacteria, respectively. Shoot elongation and rooting medium contains 15 mg/liter kanamycin and 100 mg/liter Ticar.

[0156] Shoot regeneration of peppermint plants from leaf explants: leaves from the proximal 5 cm of the shoot are most morphogenetically responsive for adventitious shoot formation. Further, explants from the basal portion of the leaf contain cells with greater organogenetic competence than those in the leaf tip. Organogenesis occurs either directly from cells in the explant or from those in primary callus. Temporally, shoot or primary callus formation occurs rather uniformly from regions of the leaf that have been injured as a consequence of dissection during explant preparation.

[0157] BA, zeatin, or 2-iP have been determined to be required for adventitious shoot formation from orange mint explants (Van Eck and Kitto 1990, 1992). Of the cytokinins tested, thidiazuron most effectively induces shoot formation from cells in peppermint leaf explants. Further, thidiazuron suppresses adventitious root formation that occurs naturally from cultured explants.

EXAMPLE 5 Physical Mapping of a Plant Genome

[0158] The nucleic acid molecules of the present invention can be used to construct a physical map of a plant genome, such as the peppermint plant genome, utilizing the following, representative techniques which are based on techniques disclosed in Plant Genomes: Methods for Genetic Mapping and Physical Mapping, J. S. Beckmann and T. C. Osborn, eds., Kluwer Academic Publishers (1992), which publication is incorporated herein by reference.

[0159] Isolation of Genomic DNA

[0160] The procedure given here (based on the method of Hamilton et al. (1972) allows simple rapid procedures for isolation of tobacco leaf nuclei. Anal Biochem. 49:48-57), has been used for the isolation of DNA from Arabidopsis, but is generally applicable to other plants. The procedure describes the extraction of DNA from nuclei which is used to eliminate, or at least reduce, the presence of undesirable plastid DNA.

[0161] First, harvest 100 g of tissue which has been destarched by placing the plants in the dark for 48 hours. All subsequent steps are performed at 4° C. unless indicated differently. Wash the tissue with ice-cold water and cut into small pieces using a single-edge razor blade. Cover the tissue with ice-cold diethyl ether and stir for 3 minutes, then decant the ether and rinse well with ice-cold water to remove the residual ether. Add 300 ml of buffer A (1 M sucrose, 10 mM Tris-HCl pH 7.2, 5 mM MgCl₂, 5 mM β-mercaptoethanol and 400 μg/ml ethidium bromide). The inclusion of ethidium bromide is essential for the isolation of high-molecular-weight DNA. Homogenize tissue with either a polytron or Waring blender at medium speed for 1-3 minutes.

[0162] Filter the homogenate through 4 layers of cheese cloth, then through 2 layers of Miracloth (Calbiochem). Centrifuge the filtrate at 9000 rpm in a Beckman JA-10 or equivalent rotor for 15 minutes. Decant and discard the supernatant and resuspend the pellet in 50 ml of buffer A plus 0.5% Triton X-100 using a homogenizer with a teflon pestle. Transfer to two, 30 ml Corex tubes and centrifuge at 8000 rpm for 10 minutes in a Beckman JS-13 rotor. Repeat the centrifugation step, except centrifugation is at 6000 rpm for 10 minutes. Resuspend the pellet in 10 ml of buffer A plus 0.5% Triton X-100. Layer the crude nuclei over two discontinuous Percoll gradients prepared as follows: 5 ml steps containing 60% (v/v) and 35% (v/v) Percoll A: buffer A. Percoll A is made as follows: 34.23 g sucrose, 1.0 ml, 1 M Tris-HCl (pH 7.2), 0.5 ml of 1 M MgCl, 34 μl of β-mercaptoethanol and Percoll to a final volume of 100 ml.

[0163] Once the gradients have been loaded, centrifuge at 2000 rpm in a Beckman JS-13 rotor. After 5 minutes increase speed to 8000 rpm and spin for an additional 15 minutes. The starch will pellet, the nuclei will band at the 35-65% interface and intact chloroplasts will band at the 0-35% interface. Collect the nuclei from the 35-65% interface and dilute with 5-10 volumes of buffer A. Pellet the nuclei by centrifugation at 8000 rpm in a JS-13 rotor for 10 minutes. The nuclei can be visualized by light microscopy following staining with 1% Azure in buffer A (without ethidium bromide).

[0164] Resuspend the nuclei in 5 ml of 250 mM sucrose, 10 mM Tris-HCl (pH 8.0), 5 mM MgCl₂, by homogenization. Bring the volume to 20 ml with TE buffer (10 mM Tris-HCl pH 8.0, 1 mM EDTA) and add EDTA (pH 8.0) to a final concentration of 20 mM. Add 1 ml of 20% Sarkosyl (w/v) and Proteinase K to 100 μg/ml. Incubate at 55° C. until the solution clarifies (approximately 2 hours).

[0165] Allow the nuclei preparation to cool to room temperature and add 21 g CsCl. When the CsCl has dissolved, add 1 ml of 10 mg/ml ethidium bromide and mix by gentle inversion. Transfer to two quick-seal tubes and centrifuge in a Beckman Ti 70.1 or equivalent rotor at 65,000 rpm at 20° C. for 16-24 hours. Remove the banded DNA with a 15 gauge needle. If the DNA is of high molecular weight the band should be very viscous. Gently extract the ethidium bromide with an equal volume of isopropanol saturated with CsCl. Repeat the extraction until there is no ethidium bromide present in the organic phase. Dialyze the DNA against three changes of 1 liter of TE. Concentrate the DNA by ethanol precipitation.

[0166] Construction of Cosmid Libraries

[0167] The success in constructing a physical map depends largely on the quality of the libraries employed. Disclosed herein is a protocol for making random shear cosmid libraries. The reason for using mechanical shear is to avoid any potential bias which might be introduced by either the non-random distribution of restriction sites or differential kinetics of cleavage when limit restriction digests are used to prepare the inserts. In practice, neither differential cleavage nor the uneven distribution of restriction sites is likely to be the major factor in contributing to library bias. Nonetheless, even a small fraction of the genome which contains regions with a non-random distribution of restriction sites or sites which are differentially cleaved, will create gaps in the map since these sequences will be selectively lost from the population. The advantage of mechanical shear is that shear forces are not expected to respect local sequence variations and should therefore produce a totally random distribution of fragments.

[0168] Preparation of inserts: Bring 50 to 100 μg of nuclear DNA to a total volume of 500 μl with TE (10 mM Tris-HCl pH 8.0, 1 mM EDTA). Shear the DNA to an average size of 50 to 100 kb. Vortexing the DNA for approximately 1 minute at the maximum setting results in a sample with a size average of around 50 to 100 kb (as visualized by ethidium bromide staining following fractionation on a 0.3% agarose gel). The average size can be adjusted by changing both the time and speed of the vortexing step. It may be necessary to optimize the conditions for each DNA preparation. The mean fragment size should be checked by electrophoresis on a 0.3% agarose gel using intact λ DNA as a standard.

[0169] Size-fractionate the sheared DNA on a 36 ml 1.25 M to 5.0 M NaCl (w/v NaCl/TE) gradient by centrifugation at 27,000 rpm for 16 hours at 18° C. in a Beckman SW27 or equivalent rotor. Alternatively, either a 10-40% sucrose gradient or agarose gel electrophoresis can be used for size fractionation (Ausubel et al., eds. (1987) Current Protocols in Molecular Biology. New York: Wiley; Maniatis et al. (1982) Molecular Cloning: A Laboratory Manual. Cold Spring Harbor, N.Y.: Cold Spring Harbor Laboratory Press). The sizing step improves the efficiency of the system by minimizing the number of ligation products which are not in the size range for in vitro packaging into bacteriophage λ particles. More importantly, size fractionation reduces the potential for generating cosmids harboring sequences which are non-contiguous in the genome.

[0170] Collect 0.5 ml fractions from the gradient. Check the size distribution by running 15 μl of every third fraction on a 0.3% agarose gel. Pool the fractions having a size distribution between 45 and 70 kb and precipitate with an equal volume of isopropanol. For all subsequent steps it is important that the samples be handled gently to avoid further shearing of the fragments. Mixing should done by gentle pipetting. In addition, it is often difficult to resuspend large fragments following ethanol precipitation. It may therefore be necessary to allow the pellets to resuspend overnight at 4° C. Complete drying of the pellets should be avoided since dehydrated pellets are very difficult to resuspend.

[0171] Dissolve the pellet in 400 μl of TE (110 mM Tris-HCl pH 8.0, 1 mM EDTA), add 200 μl 7.5 M NH₄OAc (pH 7.5) and precipitate with 800 μl of ethanol. Wash the pellet with 70% ethanol and briefly air-dry.

[0172] T4 polymerase repair of sheared DNA: in order to get efficient ligation of sheared DNA it is necessary to produce blunt ends. There are two steps to this procedure, dephosphorylation with calf intestinal phosphatase (CIP), followed by T4 polymerase “polishing” of the ends. The dephosphorylation serves two functions: (i) by removing the 5′ phosphates the likelihood of getting unwanted ligation products due to multiple inserts is greatly reduced; and (ii) the removal of the 3′ terminal phosphates is necessary to get efficient polishing of the ends. This is important since 3′ phosphates are inhibitory to T4 polymerase.

[0173] Bring 5 μg of DNA to 40 μl with TE and add the following: 5 μl of 10×HIN buffer (100 mM Tris-HCl pH 7.5, 600 mM NaCl, 66 mM MgCl, 10 mM DTT), 5 μl of 1 M Tris-HCl (pH 9.0) and 2 μl (20 units) of CIP. Incubate for 40 minutes at 37 C. To terminate the reaction add: 130 μl TE, 20 μl 10×STE (100 mM Tris-HCl pH 8.0, 1 M NaCl, 10 mM EDTA), 10 μl 10% SDS. Incubate at 65° C. for 15 minutes. Extract three times with an equal volume of phenol/chloroform (i.e., phenol/chloroform/isoamyl alcohol in the ratio 25:24:1). Precipitate with 0.5 volumes of 7.5 M NH₄OAc (pH 7.5) and 2 volumes of ethanol. Wash the pellet with 70% ethanol, air-dry for 5 minutes and dissolve in 40 μl of TE.

[0174] Add the following: DNA in 40 μl of TE, 5 μl of 10×dNTPs (250 μM solution of all four dNTPs), 5 μl of 10×T4 pol buffer (330 mM Tris-OAc pH 7.9, 660 mM KOAc, 100 mM Mg(OAc)₂, 5 mM DTT, 10 mg/ml BSA), 1 μl T4 polymerase (2 units) and incubate at 37° C. for 30 min. Extract twice with phenol/chloroform, ethanol-precipitate the aqueous phase, wash the pellet with 70% ethanol and resuspend in 20 μl of TE.

[0175] Blunt end ligation: This protocol is based on the observation that the rate of blunt-end ligation can be increased by over three orders of magnitude in the presence of large polymers such as polyethylene glycol (PEG). Ligations are carried out in the presence of 15% PEG in a total volume of 60 μl. Since PEG-mediated stimulation of the ligation rate occurs over a fairly narrow concentration range (Pheiffer and Zimmerman, “Polymer-stimulated ligation: enhanced blunt- or cohesive-end ligation of DNA or deoxyribooligonucleotides by T4 DNA ligase in polymer solutions” Nucleic Acids Res. 11:7853-7871, 1983), a rather large reaction volume is used to minimize errors associated with pipetting viscous PEG solutions. It should be noted that DNA tends to be readily sedimentable in 15% PEG so centrifugation should be avoided.

[0176] Vector DNA is prepared by the method described by Ish-Horowicz and Burke (“Rapid and efficient cosmid cloning” Nucleic Acids Res. 9:2989-2998, 1981). Vector ‘“arms” are prepared by taking two aliquots of the vector, one of which is cleaved with an enzyme which cuts to the right of the cos site and the other with an enzyme with cleaves to the left of the cos site. The vector arms are then dephosphorylated and cut with an enzyme which generates the blunt-end cloning site. The right and left arms are then purified by agarose gel electrophoresis and eluted from the gel slices by the Gene-Clean procedure (Bio 101). While this method of preparing vector requires more enzymatic steps the efficiency is improved since the dephosphorylation prevents the ligation of tandem vectors and therefore suppresses background due to colonies harboring cosmids with no inserts.

[0177] To 5 μg of insert DNA in 20 μl of TE add the following: 1 μg of each vector arm, 3 μl of 10× ligase buffer (660 mM Tris-HCl pH 7.5, 50 mM MgCl₂, 50 mM DTT, 10 mM ATP), H₂₀ to 30 μl. Add 1 μl of T4 ligase (5 units) and mix by gentle pipetting. Add 30 μl of 30% PEG 8000 in H₂O and gently mix. Add 1-2 μl of T4 ligase (5-10 units), mix well by gentle pipetting and incubate at 20° C. for 12 to 24 hours. Add 1 μl of 1 μg/μl acrylamide in H₂O (carrier) and precipitate with 13 μl of 5 M NH₄OAc (pH 7.5) and 200 μl of ethanol. Carefully wash the pellet twice with 70% ethanol, air-dry for 5 minutes and resuspend overnight in 10 μl of TE at 4° C.

[0178] In vitro packaging of cosmids: several procedures are available for preparing extracts for the in vitro packaging and subsequent introduction of recombinants into host cells (Ausubel et al. eds. (1987) Current Protocols in Molecular Biology, New York: Wiley; Hohn, “DNA as a substrate for packaging into bacteriophage lambda, in vitro” J. Mol. Biol. 98:93-106, 1975; Hohn “in vitro packaging of Σ and cosmid DNA” Meth Enzymol 68:299-309, 1979; Maniatis et al., Molecular Cloning: A Laboratory Manual. Cold Spring Harbor, N.Y.: Cold Spring Harbor Laboratory Press (1982)). Efficiencies in the range of 10⁷-10⁸ recombinants/μg can be reproducibly attained. However many of the strains commonly used for preparing packaging extracts are based on E. coli K 12 and contain the hsd restriction enzyme. In addition, extracts are usually prepared from cells containing mcrA and mcrB restriction activities, which have the potential to bias the packaging of clones having a high degree of methylation. Bias introduced during packaging can be minimized by preparing extracts from restriction-deficient hosts (mcrA⁻, mcrB⁻, hsdR⁻). Alternatively, extracts are commercially available (Stratagene, La Jolla, Calif.) which are mcrA, mcrB, mrr and hsd restriction-deficient. The commercial extracts also provide high packaging efficiencies (10⁹ pfu/μg) and are available in a form which preferentially package recombinants which are 47 to 51 kb in length and therefore maximize the mean insert size.

[0179] Package up to 4 μl of the ligation reaction directly using the chosen protocol. Store the library in 500 μl of SM (100 mM NaCl, 10 mM MgCl₂, 50 mM Tris-HCl pH 7.5, 0.01% (w/v) gelatin) at 4° C. over 20 μl of chloroform. Grow an overnight culture of the bacterial cells in liquid LB medium containing 10 mM MgCl₂ and 0.2% (w/v) maltose at 37° C. A representative bacterial strain is DK 1 (Kurnit “Escherichia coli recA deletion strains that are highly competent for transformation and for in vivo phage packaging” Gene 82:313-315, 1989). Subculture the overnight culture into LB plus Mg²⁺ and maltose by diluting 1 ml into 50 ml and incubate at 37° C. Grow to an A₆₀₀ Of 1.0, harvest the cells by centrifugation for 5 minutes at 4,000 g and resuspend the pellet in 10 ml of 10 mM MgCl₂.

[0180] Dilute 5 μl of the library into 100 μl of SM. Add 0.2 ml of the host cells, mix gently and incubate at 37° C. for 20 min. Add 1 ml of LB and incubate at 37° C. for 40 min on a roller drum. Plate varying amounts onto LB plates containing the appropriate antibiotic.

[0181] Cosmid DNA miniprep procedure: the miniprep procedure disclosed herein is based on the alkali lysis method of Birnboim et al. (Birnboim and Doly, “A rapid alkaline extraction procedure for screening recombinant plasmid DNA” Nucleic Acids Res. 7:1513-1523 (1979)). Most of the modifications are intended to simplify the handling of large numbers of samples. This procedure is based on the use of repetitive dispensers and centrifuges which hold racks of microcentrifuge tubes (Eppendorf model 5414 or Beckman model 12). By using labeled tube holders it is unnecessary to label sets of individual tubes and the number of manipulations is minimized since the samples are handled in groups of ten. The use of repetitive dispensers greatly simplifies the addition of reagents. While this protocol is more time-consuming than procedures where samples are prepared in microtiter plates, it has the advantage that it gives reasonably good yields of relatively pure DNA which can be subsequently used for other purposes such as making probes.

[0182] Inoculate 3 ml of LB medium, containing the appropriate antibiotic, with a single colony. The colonies should be freshly plated. Grow the cultures at 37° C. for 18-22 hours on a roller drum. Remove 2.0 ml of the culture into a 2.2 ml Eppendorf tube. Cultures can be poured directly into the tube. Pellet the cells by centrifugation for approximately 1 minute in a microcentrifuge at 12,000 g. Remove the supernatant by aspiration with a drawn-out pipette. Resuspend the pellet (vortex for 15 seconds) in 250 μl of: 50 mM glucose, 10 mM EDTA, 25 mM Tris-HCl (pH 8.0) and incubate on ice for 5 minutes.

[0183] Add 250 μl of 0.2 M NaOH, 1% SDS (fresh) and mix by approximately 15 inversions (do not vortex). Cool on ice for 5 minutes. Add 200 μl of 3.0 M NaOAc, pH 4.8 (ice-cold) and mix by approximately 15 inversions (do not vortex). Let sit on ice for 30-60 minutes then pellet the debris by centrifugation for 5-15 minutes. Remove 600 μl of the supernatant into a 1.5 ml Eppendorf tube. Fill the tube with 100% ethanol and mix well. Pellet the DNA by centrifugation for 2-5 minutes, then decant the ethanol by inverting the rack on a tissue. Briefly air-dry the pellet for 5-10 minutes then resuspend in 250 μl of TE(5) (the 5 denotes that the TE contains 5 mM EDTA rather than the usual 1 mM. TE(5) is 10 mM Tris-HCl pH 8.0, 5 mM EDTA). Leave at room temperature for 15 minutes then vortex briefly. Add 250 μl 4.4 M LiCl, mix, and incubate on ice for 30 minutes. Centrifuge for 5 minutes to pellet debris, then remove 450 μl of the supernatant to a new tube. Fill the tube with ethanol, mix by inversion and place at −20° C. for 20 minutes. Spin for 2-5 minutes to pellet the DNA then decant the ethanol. Wash the pellet with 95% ethanol by adding 1 ml of ethanol, centrifuge for 1 to 2 minutes then decant and discard the supernatant. Briefly air-dry the pellet and resuspend overnight at 4° C. in 50 μl of TE. Solubilize the pellet by vortexing briefly. Yield should be 1-3 μg of cosmid DNA. Although the LiCl precipitation is not essential, it is effective for removing residual protein, cell debris, contaminating E. coli DNA and a significant fraction of the RNA. The quality of the DNA is therefore improved, giving a cleaner and more reproducible fingerprint.

[0184] Fingerprinting

[0185] Fingerprint reactions with Hind IIII and Sau3A: in the protocol described herein, the clones are digested with Hind III and the resultant ends are simultaneously labeled with reverse transcriptase and the appropriate nucleoside triphosphates. Following thermal inactivation, the samples are then cleaved with a second enzyme, Sau3A. The protocol may be modified for any enzyme or combination of enzymes.

[0186] There are several considerations for choosing an enzyme(s): the enzyme(s) should be chosen such that the average number of labeled bands is optimal for the statistical detection of overlaps (Lander and Waterman, “Genomic mapping by fingerprinting random clones: a mathematical analysis” Genomics 2:231-239, 1988). When the inserts are prepared by partial digestion with a restriction enzyme it may be desirable to maintain the same cleavage specificity in the fingerprinting reaction to avoid anomalous bands arising from the insert/vector junction. In practice, this is not important when the fingerprint is composed of a large number of bands. The enzymes used should be active in a single buffer to minimize the number of manipulations required. Preferably, restriction enzymes should be used which retain activity during extended incubation and which are readily available at high concentration. The former minimizes problems associated with analyzing gels containing partial digestion products, while the use of concentrated enzymes eliminates potential glycerol effects (i.e., inhibition of activity and star activity). It may be further advisable to avoid restriction enzymes which are know to cleave their recognition sequences at significantly different rates (Gingeras and Brooks, “Cloned restriction/modification system from Pseudomonus aeruginosa” Proc Natl Acad. Sci USA 80:402-406, 1983; Nath and Azzolina (1981) in: Chirikjian J. G. (ed.), Gene Amplification and Analysis, Vol 1, pp. 113-128. NY: Elsevier-North Holland, New York; Thomas and David, “Studies on the cleavage of bacteriophage lambda DNA with EcoRI restriction endonuclease” J. Mol. Biol. 91:315-328, 1975). Differences in the order of 50-fold have been observed for several enzymes. Differential kinetics of cleavage can contribute to differential labeling and to partial digests, both of which can complicate data analysis. On the other hand, if the differential labeling of sites is reproducible, differences in band intensity can be exploited when assigning overlaps.

[0187] The following procedure for fingerprinting clones utilizes an enzyme cocktail having the following composition (enough cocktail for 48 clones): 10 μl ³²P-dATP (3000 Ci/mmol), 80 μl water, 20 μl 10×HIN buffer (100 mM Tris-HCL, pH 7.5, 600 mM NaCl, 66 mM MgCl₂, 10 mM DTT), 2 μl RNase (10 mg/ml RNase IA in 10 mM Tris-HCl, pH 7.6, 15 mM NaCl, boiled for 15 minutes) and 10 μl 1 mM ddGTP.

[0188] Pre-cool the enzyme cocktail on ice, then add 2 μl Hind III (50-80 units) and 2 μl M-MLV reverse transcriptase (400 units). Add 2 μl of enzyme cocktail into the wells of a pre-cooled microtiter dish (Nuclon 72×10 μl wells) using a Hamilton PB600-1 repetitive dispenser fitted with a disposable tip. Add 0.5 to 1 μl (25-50 ng) of the cosmid mini-prep DNA to each well. Seal the microtiter dish with a glass plate which has been covered with parafilm to ensure a tight seal. Incubate at 37° C. for 45 minutes. Heat-kill the reaction for 30 minutes at 68° C. Following the heat inactivation, cool the microtiter dish on ice.

[0189] Add 4 μl of Sau3A cocktail to each well using a Hamilton PB600-1 repetitive dispenser (Sau3A cocktail includes: 200 μl water, 20 μl 10×HIN buffer (100 mM Tris-HCl pH 7.5, 600 mM NaCl, 66 mM MgCl₂, 10 mM DTT) and 50-100 units of Sau3A. Volume should be less than 8 μl to avoid glycerol effects). Re-seal the dish and incubate at 37° C. for 2-3 hours. Stop the reaction by addition of 5 μl of formamide dye to each well (formamide plus 10 mM EDTA and tracking dyes). To an empty well add 1 μl of labeled Sau3A markers (see below) to 10 μl formamide-dye mix. Place the microtiter dish (which should be left uncovered) at 90° C. for 8 minutes.

[0190]³⁵S-labelled Sau3A markers are prepared as follows. Mix the following: 20 μl water, 5 μl 10×HIN buffer, 15 μl ³⁵S-dATP (500 Ci/mmol), 6 μl Sau3A-digested λ DNA (0.5 μg/μl), 2 μl 10 mM dGTP, 2.5 μl 10 mM ddTTP and 1 μM-MLV reverse transcriptase (200 units). Incubate at 37° C. for 30 minutes. Add EDTA to 10 mM and store at −20° C.

[0191] Fingerprinting gels: since the gels are run with ³⁵S-labeled markers, it is necessary to fix and dry the gels prior to autoradiography. Preferably the gel is dried directly onto the glass plate. Alternatively, the gels may be fixed, transferred to 3 MM paper and dried on a gel dryer. However, binding the gel directly to the glass plate has the advantage that it prevents distortion of the sample wells. Wells can be formed with combs with 60 usable slots which are 4 mm wide and separated by 1 mm. The 1 mm separation between wells is close to the minimal distance which still gives reproducible polymerization. To ensure that the wells form properly the combs are de-gassed and then flooded with N₂ gas, since the level of oxygen present in the pores of the comb is often sufficient to inhibit polymerization of the narrow slots.

[0192] Pre-treatment of gel plates: siliconize the larger of the two plates with Sigma coat (dichlorodimethylsilane), by spreading the concentrated solution onto the plate. Let the solution air-dry for approximately 5 minutes, then remove the excess with 70% ethanol. The second plate is treated with methacryloxypropyltrimethoxysilane, which covalently binds the gel to the glass plate. The binding silane is prepared by adding 5 μl of methacryloxypropyltrimethoxysilane to 3 ml of ethanol plus 50 μl of 10% acetic acid. The binding silane is spread directly on the glass plate with a tissue, air-dried for 5-10 minutes and the excess is removed by washing extensively with ethanol.

[0193] Gels are prepared as follows. Gels are 4% acrylamide, Tris/borate/EDTA, 8 M urea. To make one gel mix the following: 48 g urea, 10 ml 40% acrylamide (19:1 acrylamide/bisacrylamide), 10 ml 10×TBE (500 mM Tris-borate, pH 8.3, 10 mM EDTA), 44 ml H₂O. Filter the gel mix to remove any insoluble material. To each 100 ml of gel mix add 200 μl TEMED and 200 μl of 10% ammonium (w/v) persulfate. Pour the gel and allow to polymerize for at least 1 hour prior to running.

[0194] Load 1 μl of sample per well and 0.5 μl Sau3A markers every seventh well. Run at 45 mA (approximately 1600 V) until the bromophenol blue dye is approximately 2.5 cm from the bottom of the gel. Fix the gel for 15 minutes in 1 liter of 10% acetic acid and then rinse for 15 minutes in 2 liters of water. The gels are dried directly onto the glass plate in a drying oven for 15 to 30 minutes at 80° C. Alternatively, the gels may be dried overnight at room temperature. Autoradiograph for one to several days on Kodak XAR5 film. The exposure time should be determined empirically. The gels are removed from the glass plate by soaking in 20% Countoff (NEN) or a solution of 1% NaOH.

[0195] Image analysis of fingerprint autoradiograms: software which has been developed to assist in mapping by fingerprint analysis is readily available (Coulson et al. “Toward a physical map of the nematode Caenorhabditis elegans” Proc. Natl. Acad. Sci. USA 83:7821-7825, 1986; Sulston et al. “Software for genome mapping by fingerprinting techniques” Comput. Applic. Biosci. 4:125-132, 1988; Sulston et al. “Image analysis of restriction enzyme fingerprint autoradiograms” Cabios 5:101-106, 1989). Briefly, input data are attained using a scanning densitometer and an image processing package. The procedure for image processing involves a preliminary densitometric pass to locate band-like features, lane tracking, a precise densitometric pass and alignment of the marker bands with the standard. Following alignment of the markers, a normalized grid is calculated by linear interpolation between nearest markers and used to calculate the band positions for each lane. For interactive editing the band positions are displayed as colored lines superimposed on an image of the autoradiogram. A VAX station II/GP4 (Digital) may be used for the display and editing of the data. The bands are displayed over the marker lanes, together with the bands from a single sample. Using the “mouse” the operator can selectively remove unwanted bands before moving to the next sample lane. As individual lanes are edited, the normalized position of the bands are written to a data base. Clone matching and contig assembly are performed as described in Coulson et al. “Toward a physical map of the nematode Caenorhabditis elegans” Proc. Natl. Acad. Sci. USA 83:7821-7825, 1986; and Sulston et al. “Software for genome mapping by fingerprinting techniques” Comput. Applic. Biosci. 4:125-132, 1988.

[0196] Library Screening

[0197] It is not expected that a complete map can be assembled based solely on random clone analysis. At some point it is necessary to close the gaps by selecting the missing clones. There are several alternatives for selecting the linking clones by hybridization. Two approaches are described herein: the selection of linking clones with riboprobes from the ends of existing contigs, and using YAC clones to probe a representative collection of cosmids.

[0198] The construction of YAC libraries involves the ligation of large DNA fragments (50-1000 kb) into vectors containing selectable markers and the functional components of a eukaryotic chromosome (Murry and Szostak, “Construction of artificial chromosomes in yeast” Nature 305:189-193, 1983). The constructs are transformed into S. cerevisiae where they are replicated with the host chromosomes. Successful construction of a YAC library depends to a large extent on the ability to isolate megabase sized DNA molecules for the preparation of inserts.

[0199] Isolation of Mb-sized DNA from protoplasts: the DNA isolation procedure described herein is based on the isolation of protoplasts which are subsequently embedded in low-gelling agarose. The samples are handled in gel plugs to minimize breakage due to shear forces. The gel inserts are treated with a combination of detergents and enzymes which remove cell membranes, RNA and proteins leaving essentially naked DNA. A high concentration of EDTA is used to inactivate cellular nucleases and an extensive proteinase K treatment in the presence of detergents is used to remove proteins.

[0200] Harvest 50 g of tissue which has been destarched by placing the plants in the dark for 48 hours. Wash with ice-cold water and cut into small pieces using either a single-edge razor blade or scissors. Add 500 ml of protoplast buffer (2% cellulose, 0.25% macerozyme, 0.5 M mannitol, 8 mM CaCl₂) and place on a rotary shaker. Incubate overnight at room temperature with shaking at 120 rpm. Filter the homogenate through a sieve with 180 μm pores, then through a second sieve with 75 μm pores. The appropriate pore size is dictated by the nuclear volume and must be adjusted accordingly.

[0201] Harvest the protoplasts by centrifugation at room temperature for 5 minutes at 3000 rpm in a JS-13 or equivalent rotor. Resuspend the pellet in 100 ml of 0.5 M mannitol, 8 mM CaCl₂. Harvest the protoplasts by centrifugation for 5 minutes in a JS-13 rotor. Repeat the resuspension and centrifugation step. Resuspend the pellet in 10 ml of 0.5 M mannitol and incubate at 37° C. for 5 minutes. Add 7 ml of 2% low-melting-point agarose prepared in 0.5 M mannitol which is held at 45° C. Mix thoroughly and allow to solidify.

[0202] Cut the agarose block into small pieces and incubate overnight at 45° C. with 2.5 μg/ml proteinase K in 0.5 M EDTA, 20 mM Tris-HCl (pH 8.0), 2% sarcosyl. Wash the agarose pieces extensively with 10 mM EDTA, 20 mM Tris-HCl (pH 8.0) at room temperature and store at 4° C.

[0203] Cloning in YAC vectors: to establish the conditions for partial digestion of high-molecular-weight DNA set up a series of tubes containing approximately 1 μg of agarose embedded DNA per tube. Add serial dilutions of the restriction enzyme in the appropriate buffer which has been prepared without Mg²⁺ (the Mg²⁺ is required for cleavage). Allow the enzyme to diffuse into the gel slice by incubating at 37° C. for 3 hours. Add Mg²⁺ to a final concentration of 6 mM and continue the incubation at 37° C. for 1 hour. To terminate the reaction add 0.5 M EDTA (pH 8.0) to a final concentration of 20 mM and incubate at 65° C. for 10 minutes. The samples are analyzed by CHEF gel electrophoresis using yeast chromosomes and λ ladders as the size standards (Chu et al. “Separation of large DNA molecules by contour-clamped homogeneous electric fields” Science 324:1582-1585, 1986). Electrophoresis is through a 1% agarose gel in 0.5×TBE at 13° C. The gel is run for 20 hours at 200 V using a 60 second switch interval. Photograph the gel and determine the amount of enzyme needed to produce the maximum fluorescence in the 0.5 to 1 Mb range.

[0204] Following optimization of the digestion conditions, the reaction is scaled up for 20 μg of DNA in a 200 μl agarose plug. Melt the agarose plug by incubating at 65° C. for 5 minutes then hold at 37° C. Add a 100-fold molar excess of the restricted, dephosphorylated pYAC 4 (Burke et al. “Cloning of large segments of exogenous DNA into yeast by means of artificial chromosome vectors” Science 236:806-812, 1987) vector. Add 50 μl of 5× ligase buffer (250 mM Tris-HCl pH 7.4, 50 mM MgCl₂, 50 mM DTT, 5 mM spermidine, 5 mM ATP, 500 μg/ml BSA) and 20 units of T4 ligase. Mix well and incubate overnight at room temperature. Separate the unligated vector DNA and small molecules by electrophoresis on a 1% low-melting-point agarose gel run for 10 hours at 40 V. The large DNA molecules which remain near the origin of the gel are excised and embedded in a second 1% low-melting gel. The ligation products are then size-fractionated by electrophoresis on a field inversion gel (Carle and Olson “An electrophoretic karyotype for yeast” Proc Natl Acad. Sci USA 82:3756-3760, 1985). Electrophoresis is carried out at 200 V for 15 hours at 14° C. using a 3 second forward pulse and a 1 second reverse pulse. Slices of the gel containing DNA fragments greater than 100 kb are excised for subsequent transformation.

[0205] Yeast transformation: inoculate 10 ml of YEPD medium (1% yeast extract, 2% bacto-peptone, 2% glucose) from a single colony of AB1380 (Burke et al. “Cloning of large segments of exogenous DNA into yeast by means of artificial chromosome vectors” Science 236:806-812, 1987). Incubate at 30° C. for 18-24 hours. Subculture 1 ml of the overnight culture into 80 ml of YEPD medium and grow to a density of 10⁷ cells/ml. Harvest the cells by centrifugation at 4,000 g for 5 minutes and wash twice with 50 ml of 1 M sorbitol. Resuspend the pellet in 10 ml of SCEM (1 M sorbitol, 0.1 M sodium citrate pH 5.8, 10 mM EDTA, 30 mM β-mercaptoethanol) and add 100 μl of 10 mg/ml of zymolyase. Incubate at 30° C. for 15 minutes with gentle shaking. Test for spheroplasting by adding one drop of the cell suspension to each of 2 tubes containing either 1 ml of 1 M sorbitol or 1% SDS in water. The spheroplasts will lyse in the 1% SDS, while cells containing an intact cell wall will not. Continue incubation until spheroplasting is evident.

[0206] Melt the agarose block containing the ligated DNA at 65° C. to 70° C. for 5 minutes. To 100 μl of spheroplasted cells add 5 μg of carrier DNA and 10 μl of the ligated DNA in the melted agarose. Incubate at room temperature for 10 minutes. Add 1 ml of 20% (w/v) PEG, 10 mM CaCl₂, 10 mM Tris-HCl (pH 7.5). Mix gently and incubate at room temperature for an additional 10 minutes. Harvest the cells by centrifugation at 3000 g for 4 minutes at room temperature. Resuspend the pellet in 150 μl of SOS medium (1 M sorbitol, 0.25% (w/v) yeast extract, 0.5% (w/v) peptone, 10 μg/ml of uridine and tryptophan, 20 μg/ml of adenine, histidine and lysine) and incubate at 30° C. for 20 to 40 minutes.

[0207] Add 8 ml of top agar which is held at 48° C., mix by vortexing and spread onto a pre-warmed agar plate. Pre-warming the plates to 37° C. facilitates uniform spreading of the top agar. Top agar includes the following: 2% agar (w/v), 1.0 M sorbitol, 0.67% (w/v) nitrogen base without amino acids (Difco), 20 mg/ml tryptophan, 10 mg/ml adenine, 20 mg/ml histidine, 20 mg/ml lysine. Incubate the plates at 30° C. for 3 to 5 days.

[0208] Individual colonies are picked onto agar plates of complete medium lacking uracil and tryptophan which has been supplemented with canavanine (Burke et al. “Cloning of large segments of exogenous DNA into yeast by means of artificial chromosome vectors” Science 236:806-812, 1987; Hirmen et al. “Transformation of yeast” Proc Natl Acad. Sci USA 75:1929-1933, 1978). Canavanine resistance selects against ochre suppression due to the sup-4 gene harbored on the pYAC4 stuffer fragment (Burke et al. “Cloning of large segments of exogenous DNA into yeast by means of artificial chromosome vectors” Science 236:806-812, 1987). Complete medium includes the following: 0.67% (w/v) nitrogen base without amino acids (Difco); 1.0 mM adenine, alanine, asparagine, aspartate, cysteine, glutamate, glycine, methionine, proline; 2.0 mM leucine, serine, threonine; 0.75 mM isoleucine, phenylalanine; 0.5 mM tyrosine; 0.2 mM cystine; 0.3 mM histidine; 1.5 mM lysine; 2.5 mM valine. Plates contain 2% agar.

[0209] The positive clones are then picked into Micronic tubes containing complete medium without uracil and grown to saturation. Glycerol is added to a final concentration of 15% and the clones are held for long-term storage at −80° C.

[0210] Small-Scale Preparation of Yeast Chromosomal DNA:

[0211] DNA from recombinant yeast clones is prepared for CHEF gel analysis according to the agarose plug procedure of Burke et al. (Burke et al. “Cloning of large segments of exogenous DNA into yeast by means of artificial chromosome vectors” Science 236:806-812, 1987; and Carle et al. “An electrophoretic karyotype for yeast” Proc Natl Acad. Sci USA 82:3756-3760, 1985). Inoculate cells into 4 ml of complete media (Sherman et al. Methods in yeast genetics Cold Spring Harbor, N.Y.: Cold Spring Harbor Laboratory (1983)) lacking uracil and incubate overnight at 30° C. on a roller drum. Harvest the cells by centrifugation at 4,000 g for 5 minutes. Wash the cells in SCE buffer (1 M sorbitol, 0.1 M sodium citrate pH 7.0, 60 mM EDTA pH 8.0) and resuspend the pellet in 100 μl of SCEM buffer (SCE plus 70 mM β-mercaptoethanol and 2.5 mg/ml zymolyase T20).

[0212] Heat the cells to 37° C. for 5 minutes and add 125 μl of 1.2% low-melting-point agarose in SCE which is held at 42° C. Mix by pipetting and pour the mixture into 100 μl polystyrene molds. Incubate the solidified plugs overnight at 37° C. in a 24-well microliter plate containing 2 ml of SCEM buffer. Remove the SCEM and replace with 2 ml of lysis solution (0.45 M EDTA pH 8.0, 10 mM Tris-HCl pH 8.0, 1% sarkosyl, 1 mg/ml proteinase K). Incubate at 37° C. for 12 to 24 hours. To determine the insert size and for subsequent isolation, the YACs are separated from the yeast chromosomes by CHEF gel electrophoresis. The plugs can be stored for several months in 500 mM EDTA at 4° C.

[0213] Library Plating:

[0214] The protocols which we describe apply to both randomly spread colonies and ordered grids. Random clones are spread at a density of about 5000 clones per 15 cm plate. Up to 1000 clones may be gridded onto a 10 by 8 cm rectangle. Grids can be prepared by either tooth-picking the clones or stamped in a 96-well microliter configuration using a 96-prong replicator.

[0215] Spread the required number of colonies, or gridded clones, onto Biotrans nylon membranes which are placed in contact with the appropriate medium, i.e., LB plates supplemented with antibiotic for bacterial colonies and complete plates lacking uracil for yeast colonies. Grow colonies overnight (37° C. for bacterial colonies and 30° C. for yeast colonies). Duplicate filters are prepared as described by Coulson et at (Coulson et al. “Genome linking with yeast artificial chromosomes” Nature 335:184-186, 1988). Bacterial clones are disrupted and denatured by stacking the filters between sheets of 3 MM paper and autoclaving for 3 minutes on the fast exhaust cycle. No additional treatment is necessary.

[0216] Nylon filters containing yeast colonies are prepared for hybridization as described by Brownstein et at (Brownstein et al. “Isolation of single-copy human genes from a library of yeast artificial chromosome clones” Science 244:1348-1351, 1989). Cells are converted to spheroplasts and subsequently lysed by sequentially placing the filters onto the following series of reagent saturated 3 MM paper: lyticase solution (2 mg/ml zymolyase, 1.0 M sorbitol, 0.1 M Na citrate pH 5.8, 10 mM EDTA, 30 mM β-mercaptoethanol) overnight at 30° C., then 10% SDS for 5 minutes at room temperature, then 0.5 M NaOH for 10 minutes at room temperature and 2×SSC, 0.2 M Tris-HCl (pH 7.5) twice at room temperature. The filters are air-dried for 2 hours and irradiated with 1.2 mJ of 260 nm UV light (Church and Gilbert “Genomic sequencing” Proc Natl Acad. Sci USA 81:1991-1995, 1984).

[0217] Riboprobes:

[0218] This procedure is based on the use of cosmid vectors containing either T3, T7 or Sp6 bacteriophage promoters flanking the cloned genomic DNA. Riboprobes are prepared from the ends of existing contigs and used to isolate linking clones. When a large number of joins must be established the RNA probes are prepared from pools of cosmids. By using mixed probes the number of hybridizations is reduced by N, where N is the number of clones used for generating the probes. The pooled clones are most conveniently prepared from the rows of the library matrix. Briefly, the clones from the ends of the contigs and the unattached clones are picked in microtiter dishes and gridded onto nylon filters using a 96-prong replicator. Probes are systematically prepared from rows of clones and hybridized to the ordered grids. Overlaps can be established based on the hybridization data. The mixed RNA probes are also used to probe different libraries and therefore select clones which are underrepresented in the original library.

[0219] The archived clones are recovered from the glycerol stocks and used to grow overnight cultures in LB containing the appropriate antibiotic. The individual cultures are pooled and used to prepare DNA using the cosmid mini-prep procedure. RNA probes are prepared according to the manufacturer's conditions using T3, T7 or Sp6 (Stratagene) polymerase and ³²P-UTP. The reactions are terminated by phenol extraction. The filters are hybridized at 65° C. in 7% SDS, 1 mM EDTA and 250 mM sodium phosphate (pH 7.2) for 12 to 24 hours. Pre-hybridization is for 5 minutes in the same buffer minus the labeled probe. Washing and autoradiography is as described below except the wash temperature is 65° C. to 70° C.

[0220] Preparation of cosmid probes by random priming: linearize approximately 50 to 100 ng of cosmid DNA by digestion with the appropriate restriction enzyme in a total reaction volume in 32 μl. Denature the digested sample by boiling for 5 minutes and quickly chill on ice. Add the following: 2 μl of 10 mg/ml BSA, 10 μl OLB (having the composition set forth below), 5 μl ³²P-dATP (3000 Ci/mmol) and 2 units of Klenow fragment. Incubate at room temperature for a minimum of 2.5 hours. The reactions may be left overnight. Separate the unincorporated dNTPs on a Sephadex G-50 spin column. Prior to hybridization, denature the probe by boiling for 2 minutes then quick-chill on ice.

[0221] OLB is made by mixing solutions A:B:C in the ratio 100:250:150. The composition of Solution A is 1 ml 1.25 M Tris-HCl (pH 8.0), 125 mM MgCl₂, 5 μl of 100 mM dCTP, dGTP, dTTP. The composition of Solution B is 2 M Hepes pH 6.6 (store at 4° C.). The composition of Solution C is random hexadeoxyribonucleotides at a concentration of 90 A₂₆₀ units/ml.

[0222] Labeling of probes in microtiter plates: the protocol given is for probing 96 filters with YAC clones which are labeled by random priming. This protocol can easily be adapted for samples of isolated DNA such as cosmids. The labeling reactions are done in 96-well microtiter plates and multiple transfers are done with a 12-channel pipette. The labeled clones are used for cross-probing between the cosmid clones and the YACs.

[0223] Isolation and labeling of YAC clones: separate the YACs from the resident yeast chromosomes by CHEF gel electrophoresis using 1% low-gelling agarose. Cut the YAC clones out of the gel and store at 4° C. until needed. Melt the YAC slices for 5 to 10 minutes at 70° C. Add 10 μl of the melted YAC slice to 20 μl of distilled water in Micronic tubes (Flow Labs). Heat to 100° C. for 5 minutes in a shallow water bath and allow to cool to room temperature. The Micronic tube rack should be covered with aluminum foil during this step. Remove 8 μl into a 96-well microliter plate containing 4 μl of labeling cocktail. Multiple transfers are performed using a 12-channel pipette. Labeling cocktail for 96 clones contains: 300 μl OLB, 60 μl 10 mg/ml BSA, 60 μl H₂O, 25 μl ³²P-dATP (3000 Ci/rnmol) and 150 units of Klenow fragment.

[0224] Seal the microtiter plate and incubate at 37° C. for several hours then incubate overnight at room temperature. Incubate at 70° C. for 5 minutes in a water bath. To each well add 90 μl of denaturing solution and mix thoroughly by pipetting. Incubate at room temperature for 10 minutes. The composition of denaturing solution is: 3.6 ml 100 mM EDTA (pH 8.0), 1.8 ml 10 mg/ml of denatured salmon sperm DNA, 0.9 ml 4 M NaOH and 4.5 ml deionized H₂O.

[0225] Hybridization of filters: The composition of hybridization solution is: 125 mM sodium phosphate (pH 7.2), 250 mM NaCl, 10% (w/v) PEG 6000, 7% SDS, 1% BSA. Pipette the labeling reactions into tubes containing 11 ml of the hybridization solution. Using the correct tubes and the appropriate test tube rack, the transfers can be done using a 12-channel pipette. Mix well by inversion and spread the hybridization solution in the lid of a microtiter plate. Soak the filter (DNA side up) in the solution and then invert. If desired add a second filter. Cover the filters with a polythene sheet which has been cut to fit just inside the lid. Stack the lids in an air-tight box and incubate overnight at 68° C. without shaking. The lids are stacked by placing each alternate lid at an angle.

[0226] Washing filters: washing can be done in stainless steel wire baskets which are slightly larger than the filters. By doing so the numeric order of the filters is maintained. Washing is carried out in relatively large volumes with gentle agitation. Wash twice with 20 mM sodium phosphate (pH 7.2), 5% SDS, 1 mM EDTA for approximately 5 minutes per wash. The buffer is pre-heated to 68° C. and washing is done on a rotary shaker at room temperature. Wash six times in 20 mM sodium phosphate (pH 7.2), 1% SDS, 1 mM EDTA for 5 minutes per wash. The wash buffer is pre-heated to 50° C. Wash once in 3 mM Tris-base at room temperature. Order the filters on sheets of damp 3 MM paper and cover with saran wrap. Autoradiograph at −80° C. with an intensifying screen.

[0227] The filters can be stripped for re-probing by incubating in 2 mM Tris-HCl (pH 8.3), 2 mM EDTA, 0.2% SDS at 70° C. for 10 minutes with gentle agitation. The filters are stored at 4° C. in the same buffer. If the filters are stored for long periods of time the storage buffer should be replaced with fresh buffer every couple of months. Using this treatment it is possible to re-use the filters for a minimum of 20 probings.

[0228] Locating Genes of the Present Invention on the Plant Genome Physical Map: the foregoing procedures enable construction of a physical map of a plant genome (such as the genome of the peppermint plant). The map is made up of numerous, overlapping DNA fragments and includes the location of restriction enzyme cleavage sites. One way to determine the position of genes of the present invention on the map is to use full-length, or partial length, cDNAs of the invention as hybridization probes with which to screen (utilizing, for example, the techniques set forth in the present Example) the individual YACs or cosmids that were used to construct the map. The YAC or cosmid clone(s) that hybridize to the probe can then be digested with one or more restriction enzymes and the digestion products separated on an agarose gel by electrophoresis. The gel can be blotted and probed with radiolabelled cDNA molecules, for example utilizing the hybridization protocol set forth in Example 2 herein. In this way, the location of genes of the present invention (encoding one or more cDNAs of the invention) can be located on the plant genome physical map.

[0229] While the preferred embodiment of the invention has been illustrated and described, it will be appreciated that various changes can be made therein without departing from the spirit and scope of the invention.

0 SEQUENCE LISTING <160> NUMBER OF SEQ ID NOS: 473 <210> SEQ ID NO 1 <211> LENGTH: 1312 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 1 ctcgtgccga tcaaaatccc caattataca agccctaatt ctgcaaaatg ggagtgaatg 60 tgccgagaat caagctcggg tcgcaggggt tggaggtgtc gaagcaaggg ctggggtgca 120 tgggcatgtc ggctttctac gggcccccga agcccgactc cgacatgatc aagctcatcc 180 accacgccat cgactccggc gtcaccttcc tcgacacctc cgacatgtac ggtccccaca 240 ctaacgagat cctaatcgga aaggctttga aaggggggat gagggaaaaa gtgcagcttg 300 ccaccaagtt tggaataata atgggggttg ggaagagcga cgtacgtggt gacccggcat 360 atgtgaggtc atcatgtgag tcgagcttga agcgtcttga tgttgactgc atcgatctct 420 attatgttca tcgcattgat acctctgttc ccattgaagt cacgatgggg gagcttaaga 480 aactggttga agaaggaaaa attaaataca tcggcctctc agaggcctct ccttcaacaa 540 ttagaagggc tcatgctgtg catccaataa ctgctgttca gatcgaatgg tctttgtggt 600 caagagatgc cgagcaagaa ataattccta cttgcagaga acttggtatt ggaatagtcg 660 catatagtcc acttggacgc ggattccttt cgttgggccc taagttgctg gagaacgcag 720 cagagggcga tagccgcaag gacttctttc cgaggttcca gggcgaaaat ctcgaaacta 780 acaagctcgt gtacgagaag atctgcgaaa tggccgcgag caaaggttgc accacgtctc 840 agctggcatt ggcttgggtt catcaccaag gagacgacct ggctccgata ccggggacca 900 ccaaaatcga gaacttaaac cagaatatcg gggccctctc agtgaagtta agtcctgaag 960 aaatggctca actctcttct ttggctagta atgtgaaggg agataggtat tctgcagtta 1020 tgagcacgtt ggaaaccgca gacacacctc cattggaatc atggaaagct gagacctgat 1080 gcgcttgctt ctcaccatca ctaaaatgct tcttgcggaa aaataaaata ctacggagtt 1140 aatttttaat tcggatatgt ttatgcatat aagcgcatga tgcagtgcga cttatcgtcc 1200 atgtttataa aaktcgacat cttgtattat ttgtattcca tgttgttttt tattactact 1260 actaaatagt acgtgcatga tgtccattaa aattaaaaaa aaaaaaaaaa aa 1312 <210> SEQ ID NO 2 <211> LENGTH: 603 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 2 cctctcagag gcctctcctt caacaattag aagggctcat gctgttcatc caattactgc 60 tgttcagctc gaatggtcat tgtggtcaag agatgtcgag aaagaaataa ttcctacttg 120 cagagaactt ggtattggaa tagtcccata tagtcctctt ggacgcggat tcctttcgct 180 gggccccaag ttgctggaga acgcagcaga gggcgacctt cgcaaggatt tctttccgag 240 gttccagggt gacaatctcg agacgaacaa gctcgtgtac gagaagatct gcgaaatggc 300 cgcgagcaaa ggttgcagca cgtctcagct ggcgttggct tgggttcatc accaaggaga 360 cgatgtggct ccgataccgg ggaccaccaa aatcgagaac ttcaacgata atatcggagc 420 cctctcggtg aagttaagtc cggaggaaat ggctcaactc tctactctgg ctgataatgt 480 tgaagggaga taggtataat gcagtaaatt agcacgttgg gaaaccgcag acacrcctcc 540 attggaatca tggaaagctg aagacttcat atgaatgatt gggatatgtg tatgaattaa 600 gcc 603 <210> SEQ ID NO 3 <211> LENGTH: 1127 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 3 caatggcttc ctcctcccat ttcctctaca gtcaccacca tagctacgct tcttacaatt 60 cgaagtcaca tttcaattcc ttcaccaacg ccacttttcc tcaattctct tcgtttaagc 120 ctaatgggtc gtcgtctttt cgcaaaaagc ttcagtcttc aagaatccat atcatcagag 180 ccgcggcttc tgatcccaca actggcagaa atcaactcga ggtggtatat gatcttgaga 240 ataaattaaa caaattagct gatgaagtgg atagggaggc tgggatttca agactcactc 300 ttttttcgcc ttgcaagatt aatgttttct taagaataac tggcaagaga gaagatggat 360 tccatgattt ggcgtcactt tttcatgtta tcagcctagg agataaaata aagttctcgt 420 tgtcccatca aagtcaacgg atcgtttgtc accaatgtcc ccggagttcc tcttgatgaa 480 aaaaatttga taataaaggc tctcaatctt tttaggaaaa agacagggac kgacaagccc 540 ttttggattc atcttgataa gaaggttccg aatggagctg ggcttggggg tggcagtagc 600 aatgctgcta ctgctttatg ggcagcaaat cagttcagtg gctgcattgc aactgaaaag 660 gatcttcaag aatggtctgg agaaattggc tctgatatcc cgttcttttt ctctcatgga 720 gctgcatatt gtacgggtag aggagaggtt gtagaagaca ttccaccacc tgtacctcgt 780 gatctttcta tggttctcat gaagccacaa gaggcatgtc ccactggtga agtttacaag 840 cgtctccggt tagaccaaac gagcgacatt gatccattgg tgttgctaga gaagatatcg 900 aagggtggaa tctctcagga cgtttgcgtt aatgatcttg aacctcctgc ttttgaagtg 960 gtcccgtcac taaaaagact taaacagcgc atagccgcag caggtagaag ccatatgatg 1020 cggtcttcat gtctggaatg ggagcacaat gtgggtgtgg gttcccaaat ccacctcaat 1080 ttgtgttcaa tgacaagatt ccaaaatttt tttttctcaa agccaaa 1127 <210> SEQ ID NO 4 <211> LENGTH: 616 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 4 ctggaaaccg agtcttcaat atgggatttt gattacattc aatcttgcaa cactcgtcac 60 tatatataag gtatactttt atatatatat atatatatat ttgagtacgt ctaacaattt 120 attagttaat ttgtttattt catcaatggc taatttgtgg aatacaaatc tacatacata 180 ggaggataat tgaagcactt agctcgaaat agggaagaag aactgatcgt taggattttt 240 tcttgttgag ttacaacgta aatctaaaat gctagctagg ttttgagttc tgcatttcct 300 tagaatgtac catgcaataa tttgcaataa tattaatata atgtatgatg catatggctc 360 aaaaagaaag ccccaaattt gtttatgtat ttctgagtgt tgaaacttga acgccatgtc 420 catctccatc caactatata tactgcgccg cttttccccg attagctgcg gccgccacca 480 tgggcgtgtt cgtctccttc catgcctctc gaatcaggaa ctccgtgctc ctgcgcctct 540 ttctccgtac catatctatc cttcttggta acactggaat gctttcccct tccctctctt 600 cactcaatta gggtta 616 <210> SEQ ID NO 5 <211> LENGTH: 609 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 5 caaagattat aaccctaatt acagctcttg atgatgttta tgatatctat ggtacactcg 60 acgagctcca actatttacc cacgtcattc gaagatggga tactgaatca gccgcccaac 120 ttccttatta cttgcaatta ttctatttcg tactatacaa ctttgtttcc gagttggcgt 180 accacattct aaaagaagag ggtttcatca gcatcccata tctacagaga gcggcaactt 240 aattattctt taaatttcct ctttaatttt acatttttgt tgtcataata tatttaatat 300 atacaccaag tttctttgaa ttaatcctag tgtatgcaat tatacataca tgcagtgggt 360 ggatttggtt gaaggatatt tacaagaggc aaagtggtac tgcactaaat atacaccaac 420 catggaagaa tatttgaact atgccagcat cacaataggg gctcctgcag taatatccca 480 tgtttatttt atgctagcca aatcgaaaga gaaacggtga tcgagagttt ttatgaatac 540 gacgaaataa ttcgcctttc tgggatgctc gtgagacttc ccgatgacct aggaacacta 600 ccgtttgtg 609 <210> SEQ ID NO 6 <211> LENGTH: 573 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 6 aaaaatacca acttgtaaaa tgtccaccat tataatgagc atgacgcttc ccaacaaacc 60 taccatttgt gttgataact tcgcaactaa atatccaaat ctgcgccgag cttttccggt 120 ttcatgccgc cgccgtcagt cttccgccgt caaactcagc gctaacactg cttgtacaga 180 tgaactccaa tctacaagac gatcgggaaa ttacgaacct accctatggg attttgatcg 240 tattcagtca ctcaatagtg tttgcacgga gagggacgga agaaaggcag cggttttgat 300 aaaggaagtg aagatgttgt tacaggaaga agtggatggt gttcttcgac agctggagtt 360 gattgatgac ttgcagaagc tgggtatatc ttgtcacttc catgaagaaa tccaacaaat 420 cttgaattct ttttattaca acgaatttcc atgatgccat atttgcagaa gaaaggggat 480 ttgtcttcac agctcttgca ttcagaatac tcagacaaca cggttttaac gtctctccag 540 aaatctttga ctatttccag aattgaaaaa ggt 573 <210> SEQ ID NO 7 <211> LENGTH: 543 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 7 cggtggaaga ggtgagcaga sgcgaygtgc cgaaatcact tcagtgctac atgagtgact 60 acaatgcatc ggaggcggag gcgcggaagc acgtgaaatg gctgatagcg gaggtgtgga 120 agaagatgaa tgcggagagg gtgtcgaagg attctccatt tggcaaagat tttataggat 180 gtgcagttga tttaggaagg atggcgcagt tgatgtacca taatggagat gggcacggca 240 cacaacatcc tataatacat caacaaatga ccagaacctt attcgagccc tttgcatgag 300 agatgatgat gatgagccat cgtttactta cttaaattat accaaagttt ttcgaaggca 360 tagtttgtaa ttcttcaagc accaaatgga ataaggagaa tcggctcaaa caacgtggca 420 tttgccacca cgtgagcaca agggagagtc tgtcgtcgtt tatggatgaa ctattcaatt 480 tttatgcatg ttataattaa gttcaattca agttcaagag cctctgcata tttaactatg 540 tat 543 <210> SEQ ID NO 8 <211> LENGTH: 759 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 8 caaactagag ataactattg ttcaagcaca gtttcaacaa gaactcaaag agacctcaag 60 gtggtggcat agcacgagcc tcgttcaaca acttcccttt gtgagggata ggatcgtgga 120 gtgctactat tggacgaccg gagtccttga gcgtcgtgaa catggatatg agagaataat 180 gctcaccaaa ataaatgctc ttgttacaac tattgatgat atttatgata tttacggcac 240 atttgaagag ctccaactat tcactaacgc gattaaaaga tgggatatag aatcgatgaa 300 tcaactacct ccttacatgc aacaatgcta tcttgcactc caaaattttg ttaatgagat 360 ggcttacaat accctcaagc aaaaaggttt caactcaatc ccatatctac ataaaacgtg 420 ggttgatttg gttgaggcat atatgagaga ggcagaatgg taccacaacg gtcataaacc 480 tagcctcgaa gaatatatga ataatgcatg gatatcaatc cggaggcgtc ccgattttat 540 cccatatctt tttctgtgta acagattcta tagatgaakt gaccgttgag aaggtgcatg 600 aataccatga tttagtttcg tgcttcttgt tacgattctt aggcttgctg atgatttggg 660 aacatctttg gatgaagtga agagaggaga ctaccgaaat cattgaatgt tacttgaatg 720 atgaaaagaa tgctctgaac aaaaggccgg gccctgttc 759 <210> SEQ ID NO 9 <211> LENGTH: 627 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 9 ttctcgtctc cggcggagct aacggattcc ggcggtcgca ctccgatcgc gaagcagatt 60 tcaaaaaagt tccgatagtt cagttagtcg gtgctgcgcg catacgcggc ggcgatgaat 120 cgagagctgt gatttcttct gaaatatcgt ccagattcaa gccgattcct agaaaaagag 180 caagcgataa attggaagaa ggattggcta gagcaagagc agctgttaga aaagtagctt 240 caatcggaaa caaatctgca ggcaccaatc gtattttatc ttcggcaatc tatcgaaatt 300 ccagcgcatt tcttcagagt tacaaggaaa tggaaagaag attcaaggtg tgcgtgtgtg 360 aagaaggaga gcttccaata gtgcatgatg ggccatgcaa aaacatatac accagtgaag 420 ggagattcat ccatgctatg gagcatggaa gccatagatt taggactagc atcccccaag 480 aagctcatgt ctacttcatg ccattcagtg tccttggatg gtcaagtttc tctacaacct 540 tattcctacg aactcgccct ctccaagaat tcgtctccga ttatgtgaag ctcgtctcca 600 caagcatccc ttctggaaca gaactca 627 <210> SEQ ID NO 10 <211> LENGTH: 426 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 10 gagaagtcga ctcacacaac gaaaaattac tcaactttgc catattggac ttcaacctag 60 tacaaaggct acatcagaat gagctcagcc atcttacaag gtggtggaag gaattagact 120 ttgcaaataa gctatctttt gctagagata gactagtgga atgctatttt tggattatgg 180 gagtttattt tgaaccgcgg ttcggtattg cacgaaaatt actaacccaa gtcatttata 240 tggcttccgt ccttgatgac atttacgacg tgtttgggaa ctcctgggac aactattgct 300 ttcacgatgc attgtttcga aaggtgggac attagttgct attgatcaat tgcctgcata 360 catgagaaat attcctttga aaagcccccc ttccaatgtt gtatgttgga aaatgggaag 420 aaaaaa 426 <210> SEQ ID NO 11 <211> LENGTH: 621 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 11 ttgggatgtt aacgagacat tggaagattc gccaccgtac atccaaatgt gctacagaag 60 ccttatccaa gcttatgctg aaatagaaga tgaagtactg aagaagaact cagaagaatc 120 gtaccgcgtc caatatgcaa tacaagatat gaaaaaattg gtgatggcat attatgaaga 180 ggcgaaatgg ttgtacaata atagtattcc aacaatggag gaatatatga aggtgtcact 240 agtttcatgt ggttacatga tgttgtcaac aacttcttta gttggtatgg ggactaatca 300 agttagcaaa tcagattttg attggattgt aaatgaacct ctaatggttc gagcatactc 360 agtaatttgt cgactaatgg acgacttagt cggagacgag tatgaggaga agccgtcgtc 420 ggtccattgt tacatgaagc aatatggaat gtccaaggaa gaagctcgag ctccactcga 480 agaacaagtg aaaggacctg gaaggatatg aatgaagaat gcctcgagcc gagaccagcc 540 tccatgccaa tccttatgcg cgttttgaat tttggtcaat cctaaatctt ctgtatgcag 600 aagaagaatg ctatgcccat c 621 <210> SEQ ID NO 12 <211> LENGTH: 628 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 12 caagagtctc acgagattgg gtgcgagaaa gttcatctct ctataccaag aggatgattc 60 gcataatgaa atacttttga attttgcgaa attagatttc aatatagtgc agaagatgca 120 ccagagagag cttagtgatg ctacgaggtg gtggaagaag ttggacgtgg cgaataaaat 180 gccttacgca agagacagaa atgtggagtg cttcttttgg atggtgggcg tctacttcga 240 gccatgctac gctactgcaa gaaaaatatt acttaaatgc ataagtatgg cttccattat 300 tgatgacacc tacgaatatg caaccctaca tgaactgcaa attctcaccg acgctatcca 360 acgttgggat gttaatgagg cattggagga ttcgccacca tatatacaaa tgtgctacag 420 aagccttatt caaacttatg ttgaaataga agatgaagtt gtggagaaat ttggaggaga 480 tcgtcatacc gtgtccaata tgccatacaa gatatgaaaa atcggtgtgg gcatatatgg 540 aagaagcgaa atggatgttt gacgatatat tcccccgtgg aagaatatat gaaggttcga 600 tcgtatctgt ggttatatga caatgtcc 628 <210> SEQ ID NO 13 <211> LENGTH: 550 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 13 ctcgtgccgc tcgtgccgtt tttgtgaaaa atggctgaaa tctgtgcgtc ggctgctcca 60 atctcaacaa agaatacaag tgtagaggaa atccgtcgat cggtaacata tcatcccagc 120 gtttggagag atcattttct tgcatatact aacgacgtca cggaaatcag tgctgctgag 180 aaggaacaac tcgaaaagca aaaggaaaag gttaagaatt tgctagctca aactccaaat 240 gattcaacgc tcaagatcga cctcatcgat gcaatccaac gtctagggtt gggctatcat 300 ttcgaagagg aaatcgacgg atccttgcga aaaattcgcg acagttatga aatgttaagt 360 agcaaaggcg aggacgatgt ccgtgttctt gctcttcgct ttcgtctgct tagacaacaa 420 ggttatcgcg tcccatgcga agtgttcaac aaattggtag acgacgaagg gaattttaag 480 gagtcgttga ttaacgacgt tgaagggatg ctaagcttgt acgaagcttc aaattatgga 540 ataaatggag 550 <210> SEQ ID NO 14 <211> LENGTH: 435 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 14 ctcatatact ccttaatttc gctgatatcc ggcaaccacc gtggccacca ccgcgccgga 60 actaaaaata catgtcactc tccttcagcc ccgtagttac ctttttcgcc ggccaccgag 120 ttgaaagcag gcgacaaaat attctagtag ttcatggatt tccgatggcc accagtaagt 180 catctgtcgc cgttaaatgc aaccttaatg atacaaacga tttgatggag aaaacaagag 240 aggagttcaa ggggcaagtc gataattctc cgatagcccc ggctcttcga ctttcagata 300 taccctctag tctgtgtata atcgacactg ttgaaaggtt gggaatcgac cgctacttcc 360 gatctgacat cgataatgtt ctagagcaca catacaggct atggcaacag aaagacaaag 420 atatatattc cgatg 435 <210> SEQ ID NO 15 <211> LENGTH: 632 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 15 cgacggcaga ataggtagaa tgggagttag actaaacatc gacgtgtatg acatgagcca 60 ttatcaaact ctaaaaactt cacataggtt gtataatcta tgtaatgaag actttctagc 120 atttgcaaga caagatttca ataagtttca atcccaacag cagaaagagc ttgagcaact 180 acaaaggtgg aatgcagatt gtgggttgga caagttgaag tatggaagag atgttgtaag 240 gatttgtaat ttcttgtgtt catcgatggt cgaagaacct gaattatctg aagttcgtct 300 atctatggcc aaacaatttg tgcttttaac acgtgttgat gatttcttcg atcttgctgg 360 ctctaaacaa gaatcctaca agatcattga attagtaaag gaatggaaag agaatccaac 420 tacagaatat gattcccagg aagttaaaat cctttttaca gcagtataca acacagtaaa 480 tgaggtggca gagaaggcca tgttcaacaa ggacgtaacg tcaaagaatt tctaattaaa 540 ctgtgggttg agatactatc agctttccag atggaattag atacatggag cgatggtacg 600 gaagtaagct tggatgaata cttgtcgtgg tc 632 <210> SEQ ID NO 16 <211> LENGTH: 421 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 16 caaaggccag cggcggggca gacgcggagc tcatagcaaa cacgctcaac atctgtgctg 60 gcctcatcgc tttcaacgag cacgtactat tacacgacga atacacgact ctctcctttc 120 tcacaagtaa aatctgcaag cggctcagcc agattgaaga taaaaagacg cttgaaatta 180 tcgatggcgg cataagagat aaggaactgg agcaggatat gcaggcgttg gtgaagctag 240 tccttgaaga aaatggcggc ggcgtagata gaaacatcaa gcaaacattc ttatcagttt 300 tcaagacata ttactactgt gcctaccatg atgctgagac tattgatgtt catattttca 360 aagtactctt cgggccagtt atatgagttg taggaagtaa ttgtattagg aaatacaata 420 a 421 <210> SEQ ID NO 17 <211> LENGTH: 736 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 17 aagaagaaga aaacaagcac caatggcaga tgcacagagg tatgcattgg tgacgggagc 60 aaacaaagga atcgggttcg aaatctgcag gcagttggca gaaaaaggaa ttatagtaat 120 tttaacatca agaaatgaaa agagaggcct cgaagctcga caaaagctgc tcaaggagtt 180 gaatgtttct gaaaatcgtt tagtttttca tcagcttgat gttactgatc tagctagcgt 240 tgctgctgtt gctgtcttta tcaaatctaa attcggaaag cttgatattc tggtgaataa 300 tgcaggagtt agcggagtag agatggttgg agatgtttct gtcttcaatg aatatattga 360 ggctgacttc aaagcccttc aagcactcga agctggtgca aaggaagagc cgccatttaa 420 gccaaaagcc aatggagaaa tgatcgaaaa attcgaggga gccaaagatt gcgttgtaac 480 aaactactac ggtccaaaga gactaacaca agccctcatt cctctcttac aactatctcc 540 ttcaccgaga atcgtcaacg tctcctcctc cttcgggagt ttactgctac tgtggaacaa 600 atgggcaaag ggagtgtttg gcgacaagga cggctgaccg aagaaagagt ggacgaagtg 660 gtggaggttt tccgcacaga tataaaagaa sgttagcttg aagaaagcca tggcctccac 720 tttttgcggg gggaaa 736 <210> SEQ ID NO 18 <211> LENGTH: 640 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 18 ccaaacacaa caacacaaca cacacataca caatgggaga tgaagtagtc gtcgaccacg 60 ctacaacaaa gaggtatgca ctggttaccg gtgcgaacag aggaatcggg ttcgaaatct 120 gccggcagtt agcttccaaa ggaatcatgg tgattttagc ttcgagaaac gagaagagag 180 gtatcgaagc tcgagaaagg ctgattaagg aattgggatc agagtttgga aattatgtga 240 tttttcatca actcgatgtt gctgatcctg ctagccttga tgctcttgtc aacttcatca 300 aaaccaaatt tggaagcctt gatattctgg tgaataatgc agggaatcaa cggagtagag 360 gtggagggag atgtatcggt ttatacagag tatgttgagg cagaattgaa gacgatgctt 420 gaagctggtc atggtggagt acagggagag gcatttcatc ctcaaggaaa tggaaggttt 480 gttgagacat tggagagtgc aaaagagtgc atagaaacaa actattatgg cgcaaaaaga 540 ataacacaag ccctcattcc tcttttgcac tctctcgttc tccaagaatt gtcatgtctc 600 ctcttcttag ggatttaatg cttcccctaa tgaatgggca 640 <210> SEQ ID NO 19 <211> LENGTH: 883 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 19 ttagagagag aaaatggtgc atgaaaacaa gaaaaaaagt gtgtgtgacc ggaggaacag 60 gttttcttgg atcatggatg atcaagagac tcctcgaaga tggctactac gttaacgcaa 120 ccgttaggct cgaccccgag cggaaaagga acattagcta catcaccgac ctgcctggcg 180 cggcggagcg gctacagatc ttcaacgccg acctggacaa gccggagacc ttcgcccccg 240 ccgtggaagg atgcggcggc gtcttccaca tggcccaccc actcgacttc gccgagaaag 300 agacggagga ggtgaagctg aagcgcgtca ccgccgcgat gcaaggcatt ctgcaggcct 360 gcgccgactc cgaagacggt ccgccgagtg gtctacacct ccagcatctc cgccgtcgcc 420 ttcagcaccg ccgccaaccc cggcggcacc atcgacgaga actcgtggac cgacgtcgac 480 ttcatccgca gcctcaaggc gttygccggg ccgtacatcg tgacgaagac gctggcggag 540 aggaccgcca tagatgtggc tgcgaagctc ggtctcgatc tcgtytcgat tattccgacg 600 tgggttactg gccctttcat ttgccctaat ttgccggatt ctgttcaggt cgccatggcc 660 ttgattctag gtgatccgat gcattatcag cacctaaaag aatcgagttt gatccacgtg 720 gacgacgtcg ctcgagctca catccacctc ctcgagtttc cggaggcgaa dggccgatac 780 atcgcgtcgg ccgccgagtt caagatcgaa gagctttgcg attttctttc ggctagatat 840 ccggaatatt agatgccctc tccagattcg ttggaaagat gtt 883 <210> SEQ ID NO 20 <211> LENGTH: 480 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 20 tttttttttt tttttttttc aataatataa aaacaactta acaacacgaa attatacatg 60 gtagctgaga cggagccaca taccgagctc gactaggcgg tcgtccgggt aaattttatt 120 ttttagaata atatatagta ttatttttta tttttctaat ttttttgtcc acccagttat 180 cgtattttaa tctctttata attaagtttc tttcttattc tatgtgtttt ctaatttttt 240 tacctctcat atgaaatccc gcccgaccat ttacaatttc ctggcttcgt cactgcatgg 300 tagtaatgca ttaattccaa ttaaatcaac agccccttct ctttgcatga tttaacggcg 360 ccgtcgaaca tttcctccaa tccgttctcg tacttgaatc cagttgcctc cagcttcttc 420 gtcgacagcc ccgttagttt aaccgccgtt acatctttcc acgaatctgg agatggcatc 480 <210> SEQ ID NO 21 <211> LENGTH: 1308 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 21 aacacgcaca acacggtgat cagaaataga agtggacatg gtgatgaaca agcaaattgt 60 actcaacaac tacattaatg gttctctaaa acaatccgac ttggcgttga gaacttccac 120 gatctgcatg gagatcccag atggctgcaa cggtgccatt ttggtcaaga acttgtactt 180 gtccgtcaat ccttatctca ttcttcgcat gggaaaactc gatatcccac agtttgattc 240 catccttcct ggctctacta ttgttagcta tggagtgtca aaagtattgg attcgacgca 300 tccgagttac gagaaaggcg aactgatttg ggggtcacaa gctggatggg aggaatatac 360 ccttatccaa aatccatata atttgtttaa aatccaagac aaagatgtgc ctttatccta 420 ctatgttggg attctaggaa tgcctgggat gacagcatat gcaggatttt ttgagatttg 480 ctctccgaaa aaaggcgaaa ctgtgtttgt aacggctgca gcaggatctg tgggccagct 540 tgttggtcag tttgcaaaga tgtttgggtg ctatgttgtt ggaagtgcag ggagcaaaga 600 gaaggttgat cttttgaaga acaaatttgg gttcgatgat gcatttaatt ataaagaaga 660 gagtgattat gatactgctt tgaagaggca cttccccgaa ggaattgata tatacttcga 720 caatgttgga gggaagatgc ttgaagctgt gatcaacaac atgagagtcc acggccgcat 780 cgcggtatgt gggatggtct cccagtacag cctgaagcag cccgaaggcg tccacaactt 840 gcttaagcta atcccaaagc aaattcgtat gcaagggttt gtcgttgttg attactatca 900 tctctaccca aagttccttg agatggttct gcctcgcatc aaggaaggaa aagtgacata 960 cgtcgaagac atatctgaag gccttgagag cgcgcctagc gctctcttgg gggtgtacgt 1020 cggtcgtaac gttggcaatc aggttgttgc cgtttctcac gagtaataag tttggtgtag 1080 tatgatacac aagacactta ttatttatag tatttttcat taagttattt cgttgctaaa 1140 taattatttt gaacggggta ctccgatgat tataaaaccg tgggcgagtt tcaaacatga 1200 taattagtgc atgtatgcct tgtttgargt tcctatcacc tctccatctt ttgtatttcg 1260 ggatggtata atatatatat gcttgtataa aaaaaaaaaa aaaaaaaa 1308 <210> SEQ ID NO 22 <211> LENGTH: 623 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 22 cacacgcagt gaaaatgggg gaggagagga gcaataagca gattatactg aaagactacg 60 tgaagggttt tcctaaagaa tctgatatga ttttaaagac atccattgtt aaattgaagg 120 ttcctgaagg cctaaacggc gccgttttgg tgaagaatct ctacttgtcc tgcgatcctt 180 acatgcgagc gcgaatggag aaaacggagg gcggcagcta cattgactct tttacccctg 240 gcgaggctat agtgggattt ggagtttcga aaattataga ttcttcaaat tcagatttcg 300 aaaagggtga tttggtttgg ggaatgactg gttgggagga atacagtcta atcaaatccg 360 cacaatctct aaataaactt ccatttgctg gtgatgttcg tctctcttac tacactggaa 420 ttcttggtat gcctggtatg actgcttatg ccggttttta cgaaatttgt tccccgatga 480 aaggcgaaaa ctctttatat ccgcagcatc aggaaccgtt ggtcagcttg ttggccagtt 540 tgctaagctt ttgggtgttt ttttgttggg adtgcaggcc caacaataag gtggatcttt 600 tgaaaaacaa ttccggtttg aat 623 <210> SEQ ID NO 23 <211> LENGTH: 377 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 23 gcgcctagcg ctctcttggg ggtgtatgtc ggtcgtaaca ttggcaatca ggttgttgcc 60 gtttctcgcg agtaataagt ttgatgcaca ataaatttat tgttttatag tatttttcat 120 taatttattt cattaataaa taattacctt gaacgggtac tgcgatgatt atcaaaccgt 180 gagtgagttt caaacatgat aattagtgca tgtctgcctt gtttgaggtt cctatcacct 240 ccatcttttg tatttcggat gctgtaatat atgcttgtat aagatgtagc ttgcctcttg 300 tatttatgat gtttaatttg aaaacaatat tgtaacatca tatactatat ttataagtaa 360 tttaataaat attctag 377 <210> SEQ ID NO 24 <211> LENGTH: 632 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 24 ccgtaccgag tgaaatgggt gagaaagtga gcaacaagca gatagtcttg aaagagttga 60 tcaatggatt tccaaaagaa tcggatttga tactcaaaac ctccgctatc gaacggaagg 120 tgccggaggg ctgcaacgac gccgttttgg tgaagaatct gtatttgtcg tgcgatcctt 180 acatgcgctg ccgcatgggc gaactccacg acagctatgt taccagcttc acccctgcct 240 cgccaataat tggaaatgga gtggccaaag taatggattc ttcaaatcct aaattcaaga 300 aaggtgactt gatttggggt atgactggat gggaagaata tagtcttatt aaatcaacag 360 atggcctttt caaaattcaa gatacagatg ttcccctctc ctactacacc ggaattcttg 420 gcatgccagg attatctgct tacataggat tctacgaaat atcgtgtccg aaaaaggggg 480 agagtgtgtt catttctgct gcttctggaa ctgtgggcca cttgtgggcc aatttgccaa 540 gcttctaggt tgctatgttg ttggaagtgc cggaaccaac ctagggttga ttattgaaga 600 acgattccgg ttgatgatgc cttcactata aa 632 <210> SEQ ID NO 25 <211> LENGTH: 479 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 25 atacacacac aaacacagtg aaaatggggg aggagaagag caataagcag attatactga 60 aagactacgt gaagggtttc cctaaagaat ctgatatgat tttgaaaacc tccattgtta 120 aattaaagat tcctgaagac ctaaacggcg ccgttttggt gaagaatctc tacttgtctg 180 ttgaccctta tatgagaggg cgaatgggga ggggcagcag ctacattgac tcttttaccc 240 cgggcgagtt tttgaacttc atatgttgct gcactggcta tagtgggatt tggagtttcg 300 aaaattatgg attcttccca ttcagatttc caaaaaggtt atttggtttg gggcataact 360 ggctgccagg aatactcttt aatcaaatcc acacaatctc taagcaaact tcccttgctg 420 aagttcctct ctcttactac actccaattt ttgaacaaga aaataggatt gatctttgc 479 <210> SEQ ID NO 26 <211> LENGTH: 447 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 26 tggatccccc gggctgcagg aattcggcac gagctatagt gggatttgga gtttcgaaaa 60 ttatagattc ttcaaattca gatttcgaaa agggtgattt ggtttgggga atgactggtt 120 gggaggaata cagtctaatc aaatccgcac aatctctaaa taaacttcca tttgctggtg 180 atgttcgtct ctcttactac actggaattc ttggtatgcc tggtatgact gcttatgccg 240 gtttttacca tatttgttcc ccgatgaaag ggcgaaaacg tctttatatc cgcagcatca 300 ggaagccgtt ggtcatcttg ttcggccagt tttgctaaag cttttttggg tgtttacgtt 360 tgttcgggga agtgcagggc accaaacgat acaggtggga tctttttgga agaaacaaca 420 tcccgggttt gaatgaatgc gttcaac 447 <210> SEQ ID NO 27 <211> LENGTH: 634 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(634) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 27 cgtctttata tctgcggcat caggagccgt tggtcaactt gttggccaat ttgctaagct 60 ttttgggtgt tatgttgttg ggagtgcagg caccaaagat aaggtggatc ttttgaagaa 120 caaattcggg tttgatgatg cattcaacta caaagaagaa cttgatctca atgaagcctt 180 gaagaggtat ttccccaatg gcatcgacat ttactttgag aatgtgggag gaaagatgct 240 agacgcagtg ctacttaaca tgagtgtcca tggccgcata gcggtgtgtg ggatgatctc 300 tcaatacaac cttgaggaga aagaagctgc gtataatttg ttgtgtttga taaagaaact 360 aatcaagatg catggatttc tcgttttcaa ctacttccac ctctatccaa agtatttgga 420 gatggtttta ccactgatna aacaagggaa aatcatctac gttgaaaacg tggcggaagg 480 aatcgacagt gctcccgggg gctttgatcg ggctctttcg ttggccagaa tgtgggaaag 540 caagttgtta ttgttgctcg tgagtaaatg gggttcccat ctgtttctaa catgttatat 600 atatctatca tctcctgata aataaataaa attc 634 <210> SEQ ID NO 28 <211> LENGTH: 572 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 28 ccgccgcgtg cgtgaagcag gcggcgcgga agatggtgga gctggggacg aagggggcga 60 tcatctgcac cggcagctcg gcggcggcga agggcggtca cagcgtcacc gactacgtga 120 tgtcgaagca cgcggtgctg gggctggtcc ggtcggcgag cctccagctg gggtcccacg 180 ggattagggt caacagcgtg tcgccggggg cggtgctgac gccgctcgcc gggaggatgg 240 ggatggggac gcccgcccac gtcgagagct ccttcgggcg gttcacgagc ttgaaagggg 300 tgacgctcac ggccgaacac ctggcggaag cggcggcgtt tctggcctcc gatgaagccg 360 cgttcgtgac ggggcatgat ttggtggtgg atggtggcct cattacttta ccattcccag 420 agcagtgacg aataatacat cccatttttg gagatttaaa ttaattaata ggtttcttaa 480 caaataccac gagaaattaa tgctgtgatt aattaagggt acaaaccatg gtctctaatc 540 tttaccttta gctcagccac gttacccaat ca 572 <210> SEQ ID NO 29 <211> LENGTH: 465 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 29 aaatggcaag cgtgaagaag ctcgcaggca aggtagccat cgtaaccggc ggcgccagcg 60 gcatcggcga ggtcaccgcc cgcctcttcg ccgagcgcgg cgcccgcgca gtggtgatcg 120 ccgacatgca gcccgagaag ggcggtaccg tggcggaatc cataggcggc cggcggtgca 180 gctacgtcca ctgcgacatc accgacgagc aacaggtcag gtccgtcgtg gattggaccg 240 ccgccaccta cggcggcgtc gacgtgatgt tctgcaacgc cggcaccgcc agcgccaccg 300 ctcagaccgt cctggacctg gaactggcgc acttcaaccg cgtgatgcgt gtctacgccc 360 gtcgcacggc ggcgttgcgt ttaaacacgc gggcgccgta ataatcggtg gaactggggg 420 aagggcggcc ctttcatctt gtaccgccca agtcgccaac ggtgc 465 <210> SEQ ID NO 30 <211> LENGTH: 661 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 30 aggttcgacc gcgtcatgcg cgtcaacgcc cgcggcacgg cggcgtgcgt gaagcaggcg 60 gcgcggaaga tggtggagct ggggagggga ggcgctatca tctgcaccgc cagcgcgacg 120 gcgaaccacg ccggtcccaa cttgacggac tacatcatgt cgaagcgcgg ggtgctgggg 180 ctggtgcggt cggcgagttt acaactgggg gtgcacggga ttagggttaa cagcgtgtcg 240 ccgacggcgc tggccacgcc gctcaccgcg acgatcgggc tccggacggc cgccgatgtg 300 gagagcttct atgggcaggt cacgagcttg aaaggggtgg cgatcacggc ggaacacgtg 360 gcggaggcgg tggcgtttct ggcttcggat gaggcggcgt tcgtcaccgg ccatgatttg 420 gctgtggatg gtggattgca gtgtttacca ttcgtggccg tggccaagtg agataacgca 480 tactttctcg attggaaaaa cgtcaactca tcaataagtg tgcactttat tatttttttt 540 ttacatttta cattttttaa aataaaaatt gttaataaat gtcagaaatc acgtcggaaa 600 taaatatgaa taaacgcata aaatgaataa atgtgagaat tttaaaaaaa aaaaaaaaaa 660 a 661 <210> SEQ ID NO 31 <211> LENGTH: 760 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 31 aatttttgca ccgaatatcc tctaacgatt ggcctaatgc ctgatggaac atcaagaatg 60 tctaccagag gccaacaagt ttaccaaatg ttaagttgct cgacttggtc cgaatacacg 120 gttatcgatt ctaactacgt ggttaaggtc gacccgaggc tgtctccttc ccgagccagc 180 ctcctcacct gtggtttcac aactggttat ggagctgtgt ggaaagaact caaagttgag 240 aagggttcaa ctgttgctgt aataggcctt ggtgctgttg gattcggagc tgtgaacgca 300 gcaagaatca tgggagcatc gaggataatc ggggtcgata ttaacgacat gaaacacaaa 360 aaggcgaggg ctttcggggt cacggacttc gtgaatccta agaagacgga taaatccatg 420 tccgagctca tccaagaagc caatggagga gtaggtgtcg attattgtgt ccaatgcacg 480 ggagttccct ccctcatcaa cgaagccata gcaagcacca aaatggggct cggggaggta 540 gttctgataa gtgccggaga agagagcaga acggagctcc actacgtggg cctattgaat 600 gggaggaatc tccagggaac tacggtggtg tgagaattcc ctctgatctc cccaaaatcc 660 tccagaaatg tgtctacaag gaaatcgatc tccatcctct cataactcat gaagtttcac 720 ttgctgatgt ttaccaaaga tttctggagt acctgaagcc 760 <210> SEQ ID NO 32 <211> LENGTH: 597 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 32 tttttttttt tttttttttt ttgccttgca aaattattgc cagaattaca cacagacaga 60 gcagagcgtt caaaaggttc ttcaaccgat aaaatccaga tagaatgaaa cttcatccca 120 tatgcttaat cctaacattg taggaagaac tggaacatat gaaggtagaa ttttaatgca 180 gtcatatacg atacaaccat caaagtcgaa catrtggcta gaaggatgga tcaaattctg 240 aaatctctcg acttctaaga rcttattcaa tataatctaa cagcaaatgt gatcccttga 300 tagagatcaa gcagcagcag cctgttgtaa ctctctgtca gccctctccc taatcctcct 360 ttccatttct ggcctaaagt gcctgataag tccctgaact gggcaagcag cagcatctcc 420 caaagcacaa atggtgtgtt cttcaatctg cttcgtcact tcatggagca tatcaatctc 480 ctcccctttg aatttcctac cttcattctc tccataatca ccatagccaa tccaagtacc 540 tctctgcatg gtgttcctga accacaactc tcatgcttgt tgaagttcaa aatcaac 597 <210> SEQ ID NO 33 <211> LENGTH: 606 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(606) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 33 agaacaaagg ttggaaaata ccacctattg gtatgtggca ctacaccttg catgatacgc 60 ggttctagag atattgaagc tgctctcttg agtcacctag gagtgaagcg caatgaagta 120 actaaggatg gtctgttttc tgttggagaa atggaatgta tgggatcttg tgtaaatgca 180 cctatgatca cagttgcaga ctactccaat gggtccgagg ggtataccta taactattat 240 gaagatatta ctccaaagag agttgttgag atcgtggagg ccctgagaag aggagagaag 300 cctccccgcg gcacacagaa tgcgaatcgc aaaaattctg gacctgaagg tgggaacact 360 acattgttgg gtgagcctaa gccccctcca tgccgggacc tcgatgcctg ctgagcaagt 420 taatttttgc aatatgtcct aataatgatg aaaatttatt ggaagctcgg ancatctgta 480 ggatgtaagc tgtcgattac tcgaattgaa tgtcagaatt atgttatttt cttcttatgt 540 tggctcttcc tcccagccat tacatggatg gacttttgac ctgagttgat tcattttcca 600 tcagga 606 <210> SEQ ID NO 34 <211> LENGTH: 621 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 34 tacagtttcc ggcatccccc aagaacacct ccgacgtaag gttatgatct tctcacctgc 60 tcgaactgct actcagcaag gagccggcaa agtcggtaga tggaaaatca atttcttatc 120 cacgcaaaaa tgggagaatc cacttatggg ttggacatcc actggagacc catatgcaaa 180 tgtcggtgat tctgcattaa gcttcaacag tcaagaagct gcagtgtcat ttgctgagag 240 acatggctgg gaatacacgg tcaagaagca ccacacccca ctattgaaga tcaaggcata 300 tgcagacaac ttcaaatgga agggcccccc gaaggctgag gcgagctaat ttttcattca 360 agttctatta gcttgggttt ttagctcaag gacgactact ttctgttatg catgccgaca 420 actcaattac cttgagtgaa taaatgaaac aacattttgg gatgccttca tgcttgcttt 480 atttgtgcat agttcctatc cacttcgcac tcctttttgt ttgttgttaa gacaacatac 540 ttctgaatta ctgaatgata tctccatttt gggaagaaag aaagaagaaa gacctttttt 600 gccaaaaaaa aaaaaaaaaa a 621 <210> SEQ ID NO 35 <211> LENGTH: 618 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 35 agaaggctct ctcccccctc gtccctctct ctctcaacca acccagctga gggtaagcaa 60 agatgcagac ggcgtgcagg cgattggggc accaatacag aaagcagtct ccggcttcgt 120 tgtactctat caaatcgatt ctccctctat ctgatcaata ttatggagcg gaaaatccga 180 gaatggtttc ttctcttgcc accgaaggcg tgggccattt agttcgtaag ggaactggtg 240 gcagatcatc tgtaagtggc attgttgcag cagtatttgg ggcaacggga ttcctgggac 300 gatatctagt gcagcaactt gctaagatgg gttctcaagt attggttcct ttccgaggct 360 ctgaagattc ccaacgtcat cttaaattga tgggtgattt gggtcagatt gttcccatga 420 aatacaatcc cagagacgag aattcgatca aggcagtgat ggcgaaggcc aatgttgtta 480 ttaacctcat aggaagggaa tatgaaacaa gaaattacag ttttgaagaa atgaaccatc 540 agatggctga acagcttgct gctatttcca aagaacatgg tgggcatcat gaaatacatt 600 caagtttcct tgcttggg 618 <210> SEQ ID NO 36 <211> LENGTH: 964 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 36 cacaagttcg tccagatcaa cgggctgaag atccacgtgg cggagatcgg cggcgagtcg 60 tctccggcgg tggtgttctt gcacgggttc ccggaaatat ggtactcgtg gcggcaccag 120 atgacggccg tggcggaggc cgggttcaga gccattgctc cggattacag agggtacggg 180 ctatccgacc cgccgcccga acccgaaaag gcctcctatt cggatctggt ggcggatctt 240 cttgcgcttc tcgactctct ttctatccaa aaggcgtttg ttattgctaa ggattttgga 300 gctcgagttg cttacttatt tgcactcttt caccccgaga gagtccgtgg agtcatcacc 360 cttggtatac cgtacttgcc cacctctcct gtctcgtttg gcgaccatct tccagaaggt 420 ttctacatgt caagatggct gaaaccgggg agagctgagg cagattttgg ccggcttgac 480 aacaaaacag ttgtgcgcaa cgtctacatt ctcttctcgc gcagtgaggt gccaatcgct 540 catgagaagc aggaaataat ggaccttgtt gattcctcca ctcctctgcc atcttggttc 600 tcagaagaag atcttgaaaa ctacggcgcc ctctaccgga actcgggctt ccaaactgct 660 ctccaagtcc catacaggtc tatgtctgaa gttttcacta acgtaacaaa tgagaaaatc 720 gaagtacctg cattgttggt aatgggtgag aaggactatg tgctcaagtt tcctggtatg 780 gaggactacg tgaggggcga gcagtcgaag gcgtttgttc cgaagatgga gacggtgtac 840 gtggcggaag ggaaccattt cgtgcaggag cagttccctg aaaaaatcaa gcacctaatt 900 ctcaactttc tcaacaacaa tatttgaagg caagtgaact gaactatggg ctttgtttcc 960 tttt 964 <210> SEQ ID NO 37 <211> LENGTH: 359 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 37 cttctccaaa tttctaaggt tttagtagtg gggaaagact ttggagcaaa ggttgtttac 60 caatttgccc tcctccaccc tcaaagagtg gttgcacttg ctacacttgg tctgcccttt 120 cttatccctg gccctgtaga tgtccctaaa ggattctact tgcccagatg gaaggagcca 180 gggagagctg agcgagactt tggacgattc catgttaaaa cagtgatcaa gaagatctac 240 attatgttca cggatagtga gctccaggta gcctcagatg atcaagaaat catggatttg 300 gtagacgaat cggctccgtt gcctgcttgg tttattgagg aggatctcta cgcatatgc 359 <210> SEQ ID NO 38 <211> LENGTH: 633 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 38 tacgggtacg ggtacgggta cagaggtatt gaaggttgga actgtgaatc ctgtttctca 60 tattggtgga cctgccgaat ttgatatgaa tttcatctat attttattta tttattttta 120 ttcttagttt taattacact tgtatttttt ttttcttttc tattttttcg catttcaaca 180 caacacactt acccacacat gcacccgagg tcgacctctt ggttagagca taaatgtctt 240 agtaagtgag gtgtgcttaa tactcgtata atttgtcatt gtcaactcaa tcccaatcta 300 ttttaagtga aaccgtacaa ccaattaaat tgaattattt aaaattatat cttatgtggg 360 atcccaattc cattgacact agtgttctaa aagtcccgcc taggacgtct agtccccgcc 420 taggcgttag gcagcacctc accgattcga ctaatgctaa atccgactag gcactcagtg 480 acatcttaac tgttggtcag attaaattta attaatcttt aagtatgttt aatcgatatt 540 acgttaacta ggttgttcta tacttatttg aatgtctaaa taaattaatg ttaaattaat 600 tacaatattg aatctataca tattgatata ttt 633 <210> SEQ ID NO 39 <211> LENGTH: 610 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 39 tttaactgac cagtgatttt ctgtagaagt tgaagaaatg caaaacatgg cggtgtttca 60 gcggttttcc aggaatttcc gggagaattc ttcgcttgcc aaaatgctgg ttgttttcac 120 cgtcggtggt gggggccttg tatcatttgc tgatgctaaa tcagaggatg caataaatgt 180 tgccaatcca tctgaggctg atgacaagaa caagaaaaag agagtggtgg tacttggaac 240 tggttgggct ggaacaagtt tcttgaaaaa cctccaaaac ccatcctatg atgtccaggt 300 tatatcacca cgtaactttt ttgcattcac cccactgcta ccaagtgtta cagttggcac 360 tgtggaagct ccccccattg tttaaccatc cgcaacattg tcttaaagaa aaatgtaaat 420 gttcattact gggaaacaga gtgctcttgg attgatgccc aaaataagaa agtctactgc 480 cgatctaatc tggctggtga tgccagtccc atagaagaaa ttgttgttga ttatgaatac 540 cccgttgttt ctgttggggg ccgttcaaat acttaatatc cccgtgttgg ccgaaaattg 600 cctttcctca 610 <210> SEQ ID NO 40 <211> LENGTH: 619 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(619) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 40 tctgggcctg ctgganaaac tattcatgta aatattcatg ttgaagctat agttaatttt 60 gcaggtatgg gtcaaaatct tcttaagcct attttgangg ctgagggtcc tgatcctttt 120 tcttttcatt tgtattttgc acactgtggt acccttgcca ctgccagctt aaataaaggt 180 ggtatgtggt gtgttcctgt atccccagtt aatcttgctg tttataaacc taaggggact 240 agtggtactt tggaatttaa tgaagctttt gttagtaaaa atcataattg gcttcattac 300 atgtccactt gcacagctta ctggcgcgga acactcactt atgagttaag agttacttat 360 aagggatcgc agttttgctg ttgcaaattt gtgtgctttc tataccactc aaatggaagg 420 acctttggtt tctctgataa agctattgga gatacgggaa ttacttccgt ttgtggggat 480 tgtttttctg ttaggtttct gtcccttttg ttactcccct ctctggttgc gaactatcgc 540 aatattttcg atattcaaac atcttgcaat ggtgcatgta ttttggtttg cctcttaaag 600 gtgttgctct gttcactat 619 <210> SEQ ID NO 41 <211> LENGTH: 560 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 41 taggtcgaat aatcatggct gcagctgcaa agcatttgac accggtgact ctagagctcg 60 gtggaaaatg ccccgttatt ctcgattcct tctccgagtc agacttgaag gtggtggtga 120 agagattaat cggaggaaag tggggggcgt gtgcaggaca agcctgcatc gggatcgatt 180 atttgctcgt acaacagaaa tcagctccac atttgatcga attactcaag gcgtgtatca 240 agaaattcta cggtgacaat gtgaagaaat tgcaaagtct ttgcggaatt gtgaataaaa 300 gtcatttcga tagaatatgc aatctcctca aggggggggc ggtacccaat tcgccctata 360 gtgagtctat tacaattcac tggccgtcgt tttacaactc gtgactggaa aaccctggcg 420 ttccccactt aatccccttg cacccatccc ctttccccac ttggctttta accaaaaagc 480 ccccccaatg gccctcccaa caattgcccc ccctgaatgg caatggccaa ttgtaacctt 540 tttatttgtt aaattccctt 560 <210> SEQ ID NO 42 <211> LENGTH: 653 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(653) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 42 cgagtttttt tttttttttt ttgaaataca attaccatgg gccatggcat catatatata 60 attttggaat tttattccga aacactttat tccgagtcca ttaatggagt ttaggctcca 120 caatattcca tganagcatt tggtgaagtc cttccagctt cagagtagaa aaactcaacg 180 amcttgaaat aagcaaaggg cttatatatc aaaagggtgt tcttcatcca ccattttctt 240 cgggagcttt aatcatgcag tcggctttcg ggtttgcaaa caatccgatc gagtatcggg 300 cttcgtctcc ggtcatcatc accctgtgat aaggagcatg cagccgcccg tttgtccatg 360 catgtaaaga ggttcctatc atgacaatga aagaattcag tgacgttgga tctgcagcta 420 tccaattttt gccatctttg gtaagaattt gcagtccccc aacatgattg agctgatgca 480 atatggttac catattcttg tccgtgtggg gtattagtcc gagcttccgt ctccaaggca 540 tcgaggcgcc ccgtatttct ggactcgagc cacgtaatcc gtcgaattca ggtgcccgcc 600 aaagtaatct tcgagtccga ggctttcaag aaccatcctc ctcacaatct tgt 653 <210> SEQ ID NO 43 <211> LENGTH: 544 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 43 attttttggg cgattttcgg ttgttgcgat gtctgattcg agcaaactca ctgttcttgt 60 tactggtgca ggtggtagaa ctggacaaat tgcttataag aaactgaagg agaggtcaga 120 tcagtacatt agtagaggtc tggtaagaac tccagaaagc aaggaaaagg ttggtggaga 180 ggacgatgtt tatgtagggg atataaggaa cagcgaaagc attgcttcag cgattcaagg 240 tatcgatgct ctcattatac tcacgagtgc tgtgccgaag atgaaaccag gtttcgatcc 300 agctaaagga gggagacctg aattctattt cgaagatgga gcatttcctg agcaggtcga 360 ttgggattgg acagaagaat caaatagatg ccgccaaagc tgctggagtg aagcatattg 420 tgttggtcgg atcgatggga ggaatgaatc ccaatcccct ttgaacagtt tgggaaatgg 480 aaatatcttg gtttggaaaa aaaaggctga acatatttgg ctgattcggg ggatccccat 540 cccc 544 <210> SEQ ID NO 44 <211> LENGTH: 619 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 44 tgcgaagagg gcggcgcatg gattcttcga gctgccgctg gaagagagga ggaagtacct 60 caaggagaac tctcctactc cggcagtgat gttgaggact agctttagtc ccttcgccga 120 tcaggtccta gagtggaagg atgctcttgt ccttctggct ggcaaacaaa acgagggttc 180 tcgattctgg catcctgtat acagagatcg acttctagaa tacataaact tggcaaggcc 240 cctaataaag aagttactcg aggtgttgct caagggtatc aatgtgaatc aaattgatga 300 ggcaaaggag tcctctttga tgggttctct aggagttcag cttctacatt atccgacgtg 360 tccggacccg agccttgcag ccggagccag cccgcattcc gatgtatcgt cgtttacttt 420 actcctacaa gatgaagtgg gtggccttta tgtgagaagt ggtgaaggaa atggatggat 480 ccacgtagtg ccgatcaagg gctcgctcgt tgttaacata ggagatgtgt tgcagataat 540 gagccatgag atatataaga acgttgagca tcgaatattt ttagttgaac gatcagaata 600 gggtccggtg ccgaatttc 619 <210> SEQ ID NO 45 <211> LENGTH: 353 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 45 ctcgtgccga attcggcacg agcggctgcc acgtcgtctt ccacactgcc gctcttgtcg 60 agccctggat tcctgatccg gacagattca cttcggttaa tgttggagga ttgaggaatg 120 tcttgaaggc gtaccaggag actcagacga tcgagaagat tgtttatacg tcgtcgttct 180 tcgcattggg accgacggat gggtacattg ccgacgagtc tcaagttcat actgctaagc 240 atttctgtac tgagtatgag aaatcgaagg ttatatcgga taagattgcg ttggacgctg 300 ctgcagaggg ggtgccgata gtggcagtgt atcctggagt tgtatatggt cca 353 <210> SEQ ID NO 46 <211> LENGTH: 455 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 46 ggaaaaaatc ccagatcagt tcatcctccc cactcgtgaa agactgcatc acatccaagt 60 tgcaacccaa tcgtctcgga ttccatctgc cgtgcagcgg ggaagtgggg tttctttcag 120 atcatcaacc acggtatccc gatcgttgtt cttgaagatg caaagagggc ggcgcacggt 180 ttcttcgagc tgccgctgga agagaggagg aagtacctca aggagaactc tcctactccc 240 gcagtgatgt tgaggactag ctttagtccc ttcgccgata aggttctaga gtggaggatg 300 ctctagtcct tatggctgac agacaaaaag agggttcccg attctggcat cctgtataca 360 aatctaatct accaactctt catctactcg atcgtccttt tgcataagtt gaattgcagc 420 attttacatt atcataacaa aaaaaaaaaa aaaaa 455 <210> SEQ ID NO 47 <211> LENGTH: 957 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 47 caggaatagc tagttttgta gagagagaaa atgttgagac agattctgag tacgatcact 60 ggattacgtg gagataacgg tttcggatgg gcttcgacgg ctgaagaggt gactcgaggg 120 attgatgcta ctaatctcac cgccattgtt actggtggtt caggtggaat cgggctggag 180 acggcgaggg ttctggcatt aagaaacgca cgtgttataa tagcagcaag aaacatggat 240 tctgcaaatg aagcgaagca gcttatactc gaaagcaaca aaaccgcacg tgtccatgtc 300 cttaaactag acttggcttc cttcaaatcg gtcaaggcct tcgccgacag cttcatctcc 360 ctcgatcttc ctctcaacat cctcataaac aatgccggaa tcatgttctg tccttatcag 420 ctttctcaag atgggattga gatccagttc ggcacgaatt agcttggtca cttctacttg 480 acaaaccttc ttcttgagaa gatgaaagag acggcgaagg cgacgggagt cgagggcagg 540 atcgtaaatt tgtcatcggt agctcatatc catacttaca ccggagggat cagattccaa 600 aacctaaata acaaaagtgg atatgatgac aagagggcgt acggacagtc gaaactcgcc 660 aacatattac atgccaaaga actctcacgc cgcttcaacg gtgaaggagt aaatatcaca 720 gcaaatgcag ttcatccagg attgatcatg aacaatctct tccaattttc tggcatttgg 780 attaagaaag ttttcaagtt cttcacgttt aacctatgga agaatgtttc tcaggggagc 840 agctacaaca ttgctacgtt gcactgcacc cgaacttgaa atgtttttct ggaaaaatat 900 tttgttcaat gcaaccaact ccgacccaac cagtttggtt gagacgagat tggctta 957 <210> SEQ ID NO 48 <211> LENGTH: 645 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 48 ctagacacca acgaccccaa cgacaatcca actgtgacat tcaattactt caatgacact 60 agggacctaa gaagttgcgt aaatggcatg aaaatcctca aaagagtcgt cgaatcacga 120 gcaatctctc gattccgata ccccaacact acagtagagt ctctaataaa gtacatgctg 180 tcaatcccag ccaacctcag ggacagacgc aaatcagcag cttataatat ggagcatttt 240 tgcatggaca cggttatgac aatatggcat tatcatggag gttgccaagt gaatcgagtc 300 gttgatcgcg attataaggt gttcggagtg gattcgttgc gcgttattga tggctcgacg 360 tttgactact crcccggaac taatcctcag gctacagtta tgatgcttgg gaggtatatg 420 ggacagaaaa ttctaaagca gagacacaga gggaagtagt cctagtagtt tgattataag 480 tgctgaagga agaaattaag tgtgatcata ttttctttta taaggaatat atgtgctccc 540 attattgcca ttttgtttct taaattttcc ctttttgttt cctaaataag aactgttttt 600 atcccagatg atacatagta tcctacatat tcttctctgt gatga 645 <210> SEQ ID NO 49 <211> LENGTH: 618 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 49 tggagaacga gcatgtgggg aagaacatgt cggataatcc tctcaacacg atcttcgtcc 60 cgagtaaagt gcccgtgaat cagtcgctga tacagactgt gggaatcaca aagttgggag 120 tgtatattga agccagcagt ggctttggac aatccaaaga tagcatccat tgcgaccatg 180 gcattgcttc tgccgagata ggccagctct caaccatccc tccgaagcaa agaacgcacg 240 cagcgatcca cgatttcagg aatcggaaac gaaacctccc gcgcgaagcc ttccaaggcg 300 gcttcatcct cgagaaaatc gctcgaccgc tctcacaggg tgaggtcaag ctctcgaaca 360 ccaacgtcga cgagaaccct tccatcacct tcaactactt ctcccatccg gaagacgtag 420 cgcgctgcgt ggacgggatc cgcatatcca aaggcttcta gagtcgaagc acttcaccga 480 ctacactcag ttggatcagg acttgtcgaa aacttctaaa catgaacgtc aaaccaacgt 540 cacctcatac ctcgaccacg aacgaaacga aatctctcga gcaattctgc caggaaacgg 600 tcatcacgat ctggcatt 618 SEQ ID NO 50 <211> LENGTH: 485 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 50 aaagtatgga cgttaagggt caagatttcg agctgatacc gtttagcgcg ggtagaagga 60 tttgtccggg gacgaatttc gggcttcaaa tgttgcattt ggtgttggct agcttgctgc 120 aagcttttga tatgtcgagg gtttcgaacg aagaagttga tatgagtgag agtgcaggat 180 tgacaaacat caaagccacg cctcttgatg ttcttattgc accaaggttg cctccaactc 240 tatatatatg agtttataga gcattaagtg ttccaaaata atgtatgcag cgtcacaaaa 300 aagaagatta cgttagtatt tatatttagt tgattagtaa taatgtgatg ttcatctatc 360 cacactcgaa ttgcatgctt catttacaca aattcatgcg ttgtctttca ataaattatc 420 tagctcactt tcttgtgtta ctcaaaaaaa caatatgaaa tattccaaag tttgtataca 480 tttaa 485 <210> SEQ ID NO 51 <211> LENGTH: 501 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 51 ccgagccgtc gtggtcagca gcagcgaggt catcaaagaa ctgttcacga ccaacgacgc 60 cgccgtgtcg tcgcggccga gcgtgaaggc cggcaagcac ctggcgtacg actacgccat 120 gctagggttt tcctcctacg gcacgtactg gcgccagatg cgcaagttag tctccctcga 180 gctcttctca gcgcggaggg tcgagctcca gcgtaacgtc cgcgtctcgg aaacggcgca 240 ttttatcaac gagctctata tcccctggga agagaagaag gatgggtcca atccggtttc 300 cgtggagatg aaagaactgt ttggggagct gaacatgaac gttatactga aaaatagtgg 360 ccgggaagca gttccccgcg gagattacac cgaagaagcg cggcggtgcc cccccttatt 420 aaggaattct tcccctcccg gggttgttcg ttctgtccga aaccttcccg ttcctccggt 480 tggtggattt tggaaggcgg a 501 <210> SEQ ID NO 52 <211> LENGTH: 618 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 52 tggaggagcc aaggaacact tttttgatgc tttgctatct ctaaaagata aatatgatct 60 cagtgaggat actattattg gccttctctg ggacatgatc actgctggga tggacacaac 120 tgcaataact gttgaatggg ccatggccga gttgatcaag aatccaaggg tccaacaaaa 180 ggctcaggag gagctagacc gtgtaattgg ctatgaacgt gtactaactg aacccgactt 240 ctcgaacctt ccctatctgc aatgcatagc caaggaagca ctgaggttgc atcctccgac 300 ccctctcatg ctccctcatc gttccaacac caacgtgaag attggtggct acgacattcc 360 caagggatca aacgtgcatg tgaatgtatg ggcagtggca cgtgatcctg ctgtatggaa 420 gaatgcctca gaattcaggc ccgagaagtt tcttgaggaa gatttgatat gaagggacac 480 gattttcgtc ttcttccctt cggtgctggg agaagagtat gcccaggtgc ccaattgggt 540 atcaatctag tcccatctat gataggaccc tcttgcacca cttcactggg ctctcccgag 600 gggaagaccg gaagaatc 618 <210> SEQ ID NO 53 <211> LENGTH: 871 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 53 ctagttctct ctctctctct ctctctctct ctctctctct ctctctgtga tgagggagtt 60 cttccacctg acggggttgt tcgtgctgtc cgaagcgttc ccgtacctcg ggtggctgga 120 tttgggaggg aatgagarga ggatgaagcg gacggcggag gagatggatg agttagtagg 180 agaatggttg gcggagcatc ggagaaagga atattccggc gagggtaagg cgcaggattt 240 catggacgtg atgctgtcgg aggtaaaagg tgcgaatttt gaatgtgagt acgatgttga 300 taccattatc aaagctactt gcgggacttt gatagctggg ggcaccgaca caacagcagt 360 tgtgttcata tgggcactcg ccctactact caacaatcct catgttctgc aaaaggctca 420 acatgaattg gacacccacg tcggaaaaca aagacgagtc gacgaatcgg atctcaacaa 480 tctagtctac ctccaagcca taaccaaaga aaccctgagg ctataccctc cgggcccctt 540 gggagggacc cggaggttga ctcgagattg ccacgtgggg ggctaccaca tcccaaaaga 600 aacatggcta attgtgaact tgtggaagtt gcaccgggac ccacgaatat ggtcagaccc 660 ctccgaattc aggccgaaaa gtttctgaat ggtgaaaaaa aaagtatgga cgttaagggt 720 caagatttcg agctgatacc gtttaacgcc ggtaaaagga tttgtcccgg gacaatttcg 780 gcttcaattt gcattggttt ggtacttgct gcaactttga tatttcaagg ttcaacaaaa 840 attgattgaa taaaatgcgg attgacaact c 871 <210> SEQ ID NO 54 <211> LENGTH: 868 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 54 ttctcgatat actcatacag cttaaggaac accactccgt tcaactcaca tgggataata 60 ttaaagccgt cttaatggac atttttatag ctggaacaga tacaggttcc gcagcaattg 120 tttggacgat gaccgcattg attaaagcac ccaacgtcat gaaaaaactg caagcggaaa 180 tcagaagctt gatcggcaaa aagggtaaag tagatgaaga tgatctgcct aaacttccct 240 atctaaaagc agtagtaaag gagagcttga gattataccc tccaggtcca ctactcatac 300 ctagagaaac catggaaagt tgcgctttag agggctacca aattcaaccc aaaaccatgg 360 tttatgtcaa cgcgtatgcg gttggcagag atccagacta ctgggaaaat ccacacgact 420 tcgtgcctga gagattcttg aatagtaata ttgacgtgaa aggacaagat ttctgcctta 480 ttcctttcgg gtcgggtcga agaatgtgcc ccgggatgtc tatgggactt gcaaatgtgg 540 agcttgctat tgccaatttg ttctacactt tcgactggga attgcctcca ggaattcaag 600 cacaagatkt ggatacagat cctatgcctg gacttgcagt gcagaagaaa aatgcactcc 660 tacttgtaac taagaaatat gatgttagca aaatttgatg ttacgtaatt taaattaata 720 ctccacccgt ctcaggattt ctgagctctt ttatatttat atgtgaggta taaaataatg 780 aaatagctca gagagacaga ggaatggagt aataaacttc ctgagataat aaatttcttc 840 aatcccgatt tgaaacgagt taaaaaaa 868 <210> SEQ ID NO 55 <211> LENGTH: 481 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 55 aaaatttggg aatccccggc cgagttccgg ccggagcgat ttctggagaa ggagaacgct 60 gccatcgaca ttaaagggca gcattttgag ttgctgccgt tcggcacggg caggcggggc 120 tgcccgggaa tgctgcttgc gattcaggag gtgattatta taatcggatc gatgattcag 180 tgctttgagt ggaagctgcc cgacggcacc ggccgcgtcg acatgacgga gcgaccggga 240 ctgactgcgc cgcgagcgga agatttgttc tgccacgtcg tgccgcggat tgacccgtcg 300 gttgtttccg gcaagtgact gctgctagtg acggcggctg atgaaccagt ttaagactag 360 ctattgcttg ctgggaacat gttgcatgaa tttatagttt ccgttgattg tgtacttgct 420 gctgccagat gttttttttt ttatttatta ttttgaataa atttgttagg gtggtgttat 480 t 481 <210> SEQ ID NO 56 <211> LENGTH: 776 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 56 gctggagaaa gggggatgtg ctgcaaggcg attaagttgg taatcgcsag gttttcccgg 60 tcaagacgtt gtaaaacgac ggccagataa atggcgatac tactcactat agsgcgaatt 120 gggtacgggc cccccctcga gaattgactc aagacgccaa tatgctcggc tacgacatcc 180 cacgtggcac ggtcgtgttg gtcaacaact gggccatatc gagagacccc tcgttgtggg 240 aaaatcccga agaatttcgt ccagaaaggt tcctcgagac gagcatagac tataaagggt 300 tgcattttga gatgcttccg ttcgggtcgg gtcgaagagg gtgccccgga tccacgtttg 360 cgatggcttt atacgagctt gcactatcca agctggtaaa cgagttcgat ttcagattgg 420 gtaatggaga tagagcggag gatttggaca tgactgaagc tcctggattt gtagtccata 480 agaagtctcc tttgcttgtg cttgctactc cacgtcaatc ttgattaaat atttatatac 540 atatacacac ggaagggaag ggttcgtgtg taaataaatc ttcacgtgag aaaatttgaa 600 taatgtttaa aactatacaa agtcatgctt aaatacgcat tatattatgc ttattatacg 660 attgtgcttt ttaatgtaaa atcaatgctt aaataaaatc atgcatattg tatcttgtaa 720 ctatgcttaa ataaatatca accatagatc taactaagat cggtggtcca gattta 776 <210> SEQ ID NO 57 <211> LENGTH: 618 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(618) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 57 ttttttttta aatctggacc accgatctta gttagatcta tggatgatat atatttaagc 60 atagttacaa gatacaatat gcatgatttt atttaagcat tgattttaca taaaaagcac 120 aatcgtataa taagcataat ataatgcgta tttaagcatg actttgtata gttttaaaca 180 ttattcaaat tttctcacgt gaagatttat ttacacacga acccttccct tccgtgtgta 240 tatgtatata aatatttaat caagattgac gtggagtagc aagcacaagc aaaggagact 300 tcttatggac tacaaatcca ggagcttcag tcatgtccaa atcctccgct ctatctccat 360 tacccaatct gaaatccgaa ctcgtttacc agcttggata gtgcaagctc gtataaagcc 420 atcgcnaacg tggattcggg ggcacccctc ttcgacccga cccgaacgga agcatctcaa 480 aatgcaaccc ctttatagtc tatgctcgtc tccgaggggg ggcccggtac ccaattccgc 540 cccttatagt gagtcggtat ttacaatttc actgggcggt ccttttttca aacgtcgctg 600 acggggggaa aaacctgg 618 <210> SEQ ID NO 58 <211> LENGTH: 617 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 58 cttctctgcg cacctctctg cctcttcttc ctccagaaat ggcgccgcga ccacgctcca 60 acatcaagga aaactctgcc gccgtctcca ccgaagctcc cggtggtcgg aaacctccac 120 caggtgggct cattaccgca cagatccctc cagtcactat cccgccgcta cggcccgctc 180 atgctgctcc atctcggcag cgttcccacc gtcgtcgtct cctcctccga ggcggcgcgt 240 gagatcatga aaaaccaagg ttcaatcttt tctaacagac ctaagctgaa cattccggga 300 agggtgttct acaaccacaa agacgtggcg ttttctcctt acggcgatta ctggcggcgg 360 atgcggagca tatgcgttct tcagctgctc agcaccaaaa gggttcagtc ttatcgtgta 420 gtgagagaag aaaaactcgg ccatggttga gaagatcatg aaaggtggga ccgacggggc 480 ggtgaacttg aacgactgtt gatttctgtg atgaatgact tgttgtcagg tggccctggg 540 gaagaattgg atatagagag agattcaaga aacactacct gaagtggagg ttttaatgta 600 acttcactgt gttggga 617 <210> SEQ ID NO 59 <211> LENGTH: 636 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(636) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 59 tttttttttt ttttttttac aataagcatg attttattta agcattgatt ttacattaaa 60 aagcacaatc gtataataag cataatataa tgcgtattta agcatgactt tgtatagttt 120 taaacattat tcaaattttc tcacgtgaag atttatttac acacgaaccc ttcccttccg 180 tgtgtatatg tatataaata tttaatcaag attgacgtgg agtagcaagc acaagcaaag 240 gagacttctt atggactaca aatccaggag cttcagtcat gtccaaatcc tccgctctat 300 ctccattacc caatctgaaa tcgaactcgt ttaccagctt ggatagtgca agctcgtata 360 aagccatcgc aaacgtggat ccggggcacc ctcttcgacc cgacccgaac ggaagcatct 420 caaaatgcaa ccctttatag tctatgctcg tctcgaaggg ggggccggta ccaattcgcc 480 ctatagtgaa tcgtattaca attcactggc cgtcgtttta caacgtcntg actgggaaaa 540 cctggcgtta cccaacttaa tcgcttggag cacatcccct ttcnccagct ggggttatag 600 cgagaaggcc gcaccgattg cctcccacaa ttgcgc 636 <210> SEQ ID NO 60 <211> LENGTH: 450 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 60 gagaaaatgg ccgctcttct agtatttttc tctgtctctt taatcttact ggcggtcctt 60 ttccataagc gaaagtccag tctttcctca agaaagaggc cgccgccgtc tccattaagg 120 cttccggtga tcggccattt ccacctgatc ggagccctct cccaccgctc cttcacctcc 180 ttatccaagc gctacggcga ggtgatgcta ctccatttcg gcagcgctcc tgtcctagtg 240 gcctcctcag cggcggcggc gcgtgagatc atgaagaacc aagacgtgat cttcgcgagc 300 aggccgaggc tgagcatctt cgacaggctg atgtacagcg gcaagggcgt ggccttcgcc 360 ccctacggcg aacactggcg caacgcgcgg aacatgtgca tgctgcagct gctcaacgct 420 aaaaaggtcc aatcgttccg cgggattcga 450 <210> SEQ ID NO 61 <211> LENGTH: 385 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 61 ctgagcttga tgttcgccgg cagagacacg acgagcacgt gcctcacgtg gctattctgg 60 ctgatcgccc agaatccggc gacggaggcc aattatacgc gacgagatcg agaccgaact 120 caacctcaag caagacaaga aatggagatt cttcaccgcg caggaatcgc agaggctgaa 180 atacctccac cgcgctctgt gcgagtcgct gcggctgttc ccgccggtgg ccttcgacca 240 caaagctcct atccggcccg acattcttcc gagcgggcat tatcttcgta agaaactcca 300 agctcataat ctgcttctac tctgtacgaa ggatggagtc cgtgtggggg aaagactgcc 360 tagaatttaa accgggacag gtgga 385 <210> SEQ ID NO 62 <211> LENGTH: 157 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 62 cggcgttcaa cgcggggccc aggacgtgct tggggaagga gatggcgttc gtacagatga 60 agatggtggc ggcgacgatc atttaccatt ataatgtgaa actggtggag gggcatccgg 120 tttatcctaa aaactccata attcttcaag ctaagca 157 SEQ ID NO 63 LENGTH: 616 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(616) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 63 tgcactagct ggtgggaccg ataccatatc cacaacccta gaatggacga tgtcagaact 60 cttacgacac cctaccatca tgggaaaatt gcaaattgaa gtgagaggga ttgtaaaaga 120 caaacatgac ataagcaacg acgacctcga aaaaatgcat tacatgaaag ccgtgatcaa 180 ggaaactctt cgttgtcacc caccggtggc gttattagta cctagagaag tacgcnatga 240 tgtgaaaatc aaaggctatg acgtatcaaa gggaacggtc gtgatggtta atgtttgggc 300 aattaataaa gacctcgtat gttgggacga accggataag tttaagccag agagattttt 360 gaactatttt gacggatgcg gaggggtcga gtttcgggtg gatcccgttt gggagtggga 420 gaaggactgt ccggggaatc atacggcatg gctacggtcg agctgtcatt ggctaacatt 480 gtgcataaat ttgattggaa actgcctacc ggaatagtct tggacatgac tgaatgcgct 540 ggacttgcta cacataaact gttcctcttg ttgcattgcc tctagggcta catgattctc 600 aactaatcta ccttac 616 <210> SEQ ID NO 64 <211> LENGTH: 472 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 64 gctccgaggg ttgttcacaa agacgtgagg ttaaaagaat atgacgttcc aaagggagcg 60 gtggtgatgg ttaatgtttg ggccataggc agagaccctt catgttggga cgaacctgaa 120 aagttcaagc cggagagatt ctttgactat ctgacagatt cgaaggagtt gaatttcggg 180 tggatcccgt tcggggcggg gagacggggg tgcccgggaa tgacatacag catggctaca 240 atcgagttgt tgatagcaat cattgtgctt aaatttgatt ggaaactgcc caatggaata 300 gatttggaca tgagtgagtg tgctggactt gctacgcata gtgctatccc tcttgttgca 360 gttgcctccg aggctactta atttctcatt actatatact gtatatattt tcagttgcct 420 caattctact atatgaagcc tagaacagac ccacacctaa ttaatttcta tt 472 <210> SEQ ID NO 65 <211> LENGTH: 1393 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 65 ctccgagctc ctcagcgccc gcaacgtccg ctccttcggc ttcatcaggc aggacgaggt 60 gtcccgcctc ctcggccacc tccgctcctc ggccgcggcg ggggaggccg tggacctcac 120 ggagcggata gcgacgctga cgtgctccat catctgcagg gcggcgttcg ggagcgtgat 180 cagggaccac gaggagctgg tggagctggt gaaggacgcc ctcagcatgg cgtccgggtt 240 cgagctcgcc gacatgttcc cctcctccaa gctcctcaac ttgctctgct ggaacaagag 300 caagctgtgg aggatgcgcc gccgcgtcga cgccatcctc gaggccatcg tggaggagca 360 caagctcaag aagagcggcg agtttggcgg cgaggacatt attgacgtac tctttaggat 420 gcagaaggat agccagatca aagtccccat caccaccaac gccatcaaag ccttcatctt 480 cgacacgttc tcagcgggga ccgagacatc atcaaccacc accctgtggg tgatggcgga 540 gctgatgagg aatccggagg tgatggcgaa agcgcaggcg gaggtgagag cggcgctgaa 600 ggggaagacg aactgggacg tggacgacgt gcaggagcta aagtacatga aatcggtggt 660 gaaggagacg atgaggatgc accctccgat cccgttgatc ccgagatcat gcagagaaga 720 atgcgaggtc aacgggtaca cgattccgaa taaggccaga atcatgatca acgtgtggtc 780 catgggtagg aatcctctct actgggaaaa acccgagacc ttttggcccg aaaggtttga 840 ccaagtctcg aaggatttca tggggaaacg atttcgagtt catcccgttt ggagcgggaa 900 gaagaatctg ccccggtttg aatttcgggt tggcaaatgt tgaggttccc attggcacag 960 cttctttacc acttcgactg gaagttggcg gaaggaatga agccttccga tatggacatg 1020 tctgaggcag aaggccttac cggaataaga aagaacaatc ttctactcgt tcccacaccc 1080 tacgatcctt cctcatgatc aattaatact ctttaatttg ctcctttgaa taaagagtgc 1140 atatacatat atgatatata cacatacaca cacatatact atatatgtat atgtagcttt 1200 gggctatgaa tatagaaatt atgtaacctt ttcttttttt taaaaaaaat tcaataagca 1260 aatatgtaac cttggacact tgtctcaaac caaaactagc atgtattgtt gaggtagcta 1320 gctttcaatt gatatgcata tcaataatta tatggaatat gcattttaaa tattaaaaaa 1380 aaaaaaaaaa aaa 1393 <210> SEQ ID NO 66 <211> LENGTH: 1290 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 66 caaagatggc gcaaatactg gcaagtcact tgatcaagcc atcatctcca actccaaaca 60 cattcaaaaa gcacaaacta tcagttctcg accaaatttc acccccagct tatctcaccc 120 tcatcttctt ctaccaagat cttgagtcga atcagcacga agaaatctct cgacgtctga 180 aacaatcatt gtcggagatc ttaaccatct tctacccatt agcaggaacg gttcatcgaa 240 attcattcgt cgattgcaac gacagaagcg cggagttcgt ggaggcccga gttcacggtg 300 gcctctcaaa gttcgtaaaa aaccctaaaa tggaggaact ggaacaattg ctccctgccg 360 acttttcatc ccacaccgaa aaacccattc tatcggtgag aaacagctac ttcgactgcg 420 gggggaatcg cagtcggcgt ctgttttccc cataaaatgg gagatacctc cccttttgsc 480 aggttcatga atgcatgggc ggccacttgt tggggggaag cttctaaraa tcatcccccc 540 ctccttcgaa ctggcactcc gttttcctcc gagagaattt ttagcctccg aattctatct 600 tggaagctcg ggagacaaaa tcgtgacaag aargttggtg ttcgagaggg agaaggtgga 660 gaagatcagg aaagaagctt ctagaaatca tgaggtgaag gatccgagca gagtggaagc 720 cgtttcctca gttctctggc gaagtttcat cgaggcacat aaaaaggtcg aaaaggaagc 780 gacgtcgttt cctacctccc atatggtgag catgargcgg agagcggtcc caccggtgcc 840 ggatcacgca ttcggaaact gcttcacgtt agcccttgca atggtgtcta aggaggaaga 900 ggacgaagaa gaggaagatg gagtgctggt atcgagattg agggccgcca tacgaggagt 960 ggacgaggat tacgtagaag ctattagcga cgacgagttt ataaaagagg tactaggtcg 1020 aatcggagat taaatcaagc cggggaactg tatttttacg agttggttaa ggtttccttt 1080 gtacgaagtg gatttcggtt gggggaagct ggttagggtt tgcaccgcga cgatgccata 1140 catgaatctg gtcattctga tggacactcc gtcgggagac ggtatccaag catgggttta 1200 tgttcccgac gacaaattct ttgcattgct tgaagcccat tgccataaga acctctcttg 1260 attaactttt ttcccctttg atttccccat 1290 <210> SEQ ID NO 67 <211> LENGTH: 850 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 67 aaaatttgtt ttcaaaattc ccagaaatat gaatcatact tggtttcatc aaaatattcc 60 ttctagctca tccgacgatg agacagaaga acaattgatt attcaacaaa tttatgccaa 120 ccaccaaatg tatgcccaat atatgcagca acaacaaagt gaggctacac atggaggctc 180 agttatagga catcgaatca ttcatcgtga tcgtgaagga gcagatgcta ttctcttcaa 240 tgactattta tctgaaaatc taacgtacaa tgaagaacac ttcagacgac gttatcggat 300 ggctcgacct ttatttttgc agatagctga ggctgtaaag aatcatgatc actactttca 360 acaaaaaagg gacgcatctg gaaaactagg tttgtctaca tttcaaaaac ttactgctgt 420 atttcgtatc ttagcctatg gtgttgcggc agatgctact gatgagtcca ttaagatcgg 480 tgaatctact gcaattaaat gtgttaaaag attttttaaa gccacttagg gagatctttg 540 ggagaatatt atctaagatc tcccaatgct aatgatgttg ctagacttct ctatattggt 600 aagcagcatg actttccagg aatgcttgga agtttagatt gcatgcattg gaagtggaaa 660 aattgtccaa aatcttgggc tgcaagatat gcaggtcgag gtggaaaacc aactattatt 720 cttgaagctg tagctgatta cgatctttgg atatggcatg catattttgg gatgccagga 780 tccaacaatg atattaatgt gttggagacg tcccctctct ttgccgacct tgcccggagg 840 tatcgctcct 850 <210> SEQ ID NO 68 <211> LENGTH: 604 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 68 ttctagtgtc cttatggctg atgcagttca accgctgact gatgcagcaa agcaattctt 60 agctgcacgt tataaagata tatctaagtt ccaggatgag gttatgaagt tgcctcttgc 120 tgggattgag gcaatcctgt cgagtgacga tcttcaggtg gcttcagagg atgcagttta 180 cgattttgcc ctaaagtgga ctaggactca ctatcaaaag ctggaggaga ggcgagacat 240 cctctgtaca cgtttgggtc gctatatccg tttcccttac atgacttcac ggaagcttag 300 gaaagttctg acgtgcaatg acttcgatca agattttgcc actaaagctg tgctcgatgc 360 cctatttttc aaggcagagg ccccacatcg ccagagaata cacgcagtag aagagtcatc 420 ctctaaccgt aggtttgtgg agaagtccta caaatacaga ccagttaagg tagtcgagtt 480 tgaactccca cgccaacagt gtgtatctac ttagatctca agaaggaaga tgtgcaaatc 540 tcttcccctc cgggagagta tattctcaac attcccttgg gaaggcaagg gtctcctctc 600 tgcc 604 <210> SEQ ID NO 69 <211> LENGTH: 463 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 69 gaaagttgtt gctccataat tacccaatct tcattttctc tctcatccaa actcatccat 60 ggcgtccccg ccccacatcg ccgtcatccc gactcccggc atgggacacc tcatccccct 120 cggcgagttc gccaagaagc tccaccgcct ccacggagtc accaccacct tcatcctccc 180 caccgacggc accctctccg ccggccagtc cgccttcttc gccgccctcc cagccgccgt 240 cgaccacctg ctcctcccac ccgtctcctt cgacgacctc gcccccgaca ccaagattga 300 gacccgcatc tgcctcacca tcacccgctc cctcgcgcca tcgcagcgcc gtcgcaccct 360 gcatgagtcc aagaacctcg ccgcctcgtc gtcgacctct tcggcaccga cgccttcgag 420 gtctcgcgcg agcttcacat tcccttctac atcttctacc cct 463 <210> SEQ ID NO 70 <211> LENGTH: 516 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 70 cggaggagga gaaaccatcc aaccgtcgtc accacctcag atctgatcaa gatgcacggc 60 tacgccagcg tcagcaccgg cgacgccgcc ggtctgaagg tcgaagactt tgacatagag 120 tccggcgatc gtctctaccc cggaatcggc cacggcgaga acctcctgcg atggggattc 180 attcgcaaag tgtacggtat tatggcggcg cagatcctcc tcaccaccgc cgtcaccgcc 240 gccaccgttc tctacgcgcc gatcaacgac ctcctgcgcg cgaatcccgg atttctgctt 300 ttcctcatct tcaccccctt catcttattg tggccgctgt acatctatcg tcagaagcat 360 ccattgaatt tggttttcct tgggctcttc actgctttta tgagtctaac tgttggagtg 420 agctgtgttt atactgaagg aagaattgtg ctcgaacctt gatattgacc tcagctgtag 480 ttcagcactg actgggttca ccttctgggc tgctaa 516 <210> SEQ ID NO 71 <211> LENGTH: 436 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 71 caaacacaaa cctacctcac acacatatat atatatatac gtatcactta tttttctgtt 60 atcccatatc gaataaacat aaaaaaaaaa aaaacacaat tgaagatggg aggagaggta 120 gagaagaagc tccatgcgat aatgatatgt ctacccggcc aaggccatct caaccccttc 180 gtcaacctgg ctctcaagct agcttccaag ggcataaccg tcactttcgt tcacctcgaa 240 gccctctacc gcaagctcct cggcgccacc aaccactccg acaaagaaac tcgagtcgat 300 ttcttcgccg gagctcgaga gtcggggctc gacatacgct taaccaccat gaacgaccac 360 aagcctttgg agttcgacag agacgccaac ttcgaggagt actgggagac tatgattcga 420 gaattaacgc ctatcg 436 <210> SEQ ID NO 72 <211> LENGTH: 470 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 72 atcatataaa gctctactgg tggaaacaat aaaagatcct caggcatcct ggtcggaatc 60 aagggtgaag ttggagaagg atcctcaagg acgtgctgca aatccgaatc ttgacaaatc 120 cgatctagag aaatttttcc gcgatcatgt taaatcgttg caagagaggt gcgtacatga 180 tttcagagct ctactggcag aaaccataac cgcagaaggt gcagctcaag aaagcgaaga 240 cggtaaaacc attttaacat cttggtcaac agcgaaacta ctgttaaaga gcgatcctag 300 gtacaacaaa atggcgagga aagaacgaga agccttgtgg agaagacatg ctgaggagat 360 cctacgcaag cccaagaaag atccagatcc cgatcacgag agaaacccga agatgggaaa 420 actaaaacac acctcgattc tgggaagcat tcatcacctt cgagaagacc 470 <210> SEQ ID NO 73 <211> LENGTH: 571 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 73 ccaaagttga acctaatcat attgattaac tcatgcttca ctgcgaatca taaatcttct 60 tcagctccag ttccctcagc ctcaacctta tgaggcgctc gtcttccctt tcccgtttcc 120 tttcctcttc acttttcagt ttcctgtcct cgcttagatt ccattccttc atttcactgc 180 atcgtggtat tttgcagctc gatgctgggc attctcgagc atggaacttg acaagatgaa 240 acataacctt acaccgtcta caaccctcta acttgcagat taagacatga tggagaagaa 300 cgctgccatc atgacaattt gggatactcg caacttcgca gatgcatgca ccatgagatc 360 atcttgtacc ttcaactgat catgaagctc atggaggcgc tcttggaggt ggtcagggaa 420 ttttttgaaa ttttttatga tacgggcatt cctggctatc aggtaatctc caacgcgatg 480 aaatcgccac agggaatttg ttttcgaacc ctcctcgccc ttcatgatct atgctttctc 540 taagcttcta cagaaaaggg ggttttctcg a 571 <210> SEQ ID NO 74 <211> LENGTH: 602 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 74 gagagagatg ttggaggaaa tcatgcgtaa aggtacaagc gcactcggaa cggacgtgcc 60 gagtgagcga gagatcaacc gccttgcagc aagatctgaa gaggaattct ggctattcga 120 gaaaatggat gaggagagaa ggcagcggga gaattacagg tcccgtctca tggaagaaca 180 cgaggtgcca tttgatcccg aggatgaaga tttaaatgtc aagggtaata aaggctctct 240 cgacttcgac actccagtta caggaaaaag gcacagaaag gaagtgatcc gtgaggatgc 300 aataagtgat tcacagtgga tgaaagctgt agagaatgga aacgacgggt ccaaacatat 360 tgctaaaagg aggagagaga atccaccgct catcttcaag aacgaaacgt ctgaaaataa 420 tgtatccggg gagaagaggt tctggaactc aagagtgaga ctgggtcgat ggtgagcgag 480 gctaagagcg aagaccctct ggctggattt ctcagaggtc caaatttgaa ggtgaaagtt 540 ctagaaaaag aagtttggaa gctgtggaaa ccgggttgaa tggtttgaca tgggaagcac 600 at 602 <210> SEQ ID NO 75 <211> LENGTH: 605 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 75 atttcggctc cagccctaaa ttcgacccag taaaaactct ggcgatatct ttgatttgaa 60 tacggaagca gctaggattg gcggcacgat gattcgccgt cgattaattt cgagggttcc 120 agttttattg ttttattatt catgctccat ttttctcagc tattctccag tgttgatatc 180 agccgcagtt gtcacgcttg attctataga gatcttcaaa acccacgaat ggattccaac 240 caaaccgaaa gtcttctttc agtgtaaaga agaggatgag ataattttac ccgatgttac 300 agaaaaacac gtactgtatt cattcagagg tgaagaatcg tggcagcctc taacagaact 360 tcctgatata aaatgcaaac gatgtggact ctacgaaaag gatgctatca aatcaaatga 420 tgtatttgat gagtgggaac tttgtgcatc tgatttccaa ggtctgatgg caagtatatt 480 cattttaaag agaaagattt caatgccaca tttctatgtg ctgaatgtgt agttctggca 540 aaagcttcat ctgcttcagc ttcagcgaaa gaggattctc taattcaaaa aatgaggact 600 cgagt 605 <210> SEQ ID NO 76 <211> LENGTH: 475 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 76 tgcaggtgtt aatttgttgt tgagattccg ttattgagtt ggtctgaaaa tggtgaggca 60 aaagatagag ataaagaaaa tagataactt gacggcgagg caggtgacct tctcaaagag 120 gagaaaaggg cttttcaaga aggctaaaga actctccact ctctgtgatg ctgagattgc 180 cctcattgtt ttctcggcca ccagcaaact cttcgactat tcttcctcaa gcatgataca 240 actcattcag aagcatgatt gccacgaaga cgagtccaaa ccatggcaac aacaacccct 300 cctcattgat caggtgtttt tacagggaaa gaaatagcat tggtgccctc ggcaagcagc 360 ttatggagct caccagggga gctaaaacag cttgagggag aagatctcca agggcttggg 420 ttgagcgatc tcatgaaact tgagaaatta gttgagggag gaatgagccg tctca 475 <210> SEQ ID NO 77 <211> LENGTH: 966 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 77 ggagagtgca gctgaagagg atagagaaca aaataaaccg gcaagtgact ttctcgaagc 60 ggcgatcggg acttctcaaa aaagcccgtg aaatctcgat cctctgcgac gccgatgtgg 120 gcttaatcgt cttttccacc aagggcaagc tctttgaata tgctactgat tcatgcatgg 180 aaacgatcct agaacggtat gaaagatgtt catacgctga taggcagctc aaagagccgg 240 accttgattc accggcaagc tggactttgg agcatgcaaa gctcaaggct agagcggagg 300 ttctgcasaa aaaccagagg cactatatgg gagaagagct ggatacatta agcatgaagg 360 aactgcaatc cgtagagcat caactggatg tttctcttaa gcacattcgc acgcgcaaga 420 accaactcat gaatgagtcc atctcagagc ttcagaaaaa ggataaagca ttgcaagaac 480 aaaacaactt cctctcgagg aagataaaag agaaagaaaa attagagttg gctgaaaaaa 540 cgacgacggc gacggcgacg gagcaagaac aaaaccatgt catcaactct tctgcttttg 600 atcacccaca tgctatgggg cccatcaaca tgagcaacga gatttacccc gcagctggaa 660 ctccagaaga aaatggagaa gcgaagcacc aacagaatcc ttattattcg aacacggcaa 720 tgccctcatg gatgttggga tggttaatta atatttagaa tcacattttc tctaagcata 780 tattatatgt ttgtttgttt gaaatcgaat gtgatttatg gtcttcctca gataattata 840 ttggagaaaa taagggaacc aatttatttt cgaaaagcga agaaacttcc ttctgttgaa 900 ggaaaggatt cccaactcag ttcttttttg aaaaataatt ttctcaaaaa aaaaaaaaaa 960 aaaaaa 966 <210> SEQ ID NO 78 <211> LENGTH: 275 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 78 tgaaatattt cccgacgacc gcagccacaa gcgcataatg aagaaccgag tctccgccgc 60 ccggtccagg cctagaaagc aggaaactac cgatctttat taatttgcat ttttacaact 120 tgccatattt ctctttcttt tctctttaca aattaggttt ttagggatat tttatttttt 180 gagaaaaaat ttccaacatt cttttctcaa aaaatagaaa aaaaaaccaa taatttcttt 240 tagacaagtt tgaattaaaa aaaaaaaaaa aaaaa 275 <210> SEQ ID NO 79 <211> LENGTH: 604 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 79 cgtcgtcttc gtcggaggaa gacgaagagg aggagtacga tgaggaggat gaggatgaga 60 gagaagcggt ggtgagaggg gtgtcgagct acgagttgag agagaatcct aaaaagagcg 120 cggttttgtt ggatcacgac ttcccctccg tggtggtaca gggcggcgag agcgaaacag 180 agtcgtcgga gaagaacacc gccgccgttt gcaggaggag atcgaaacgc gtgagggaat 240 ccagattctc cgacgacttc gacgtgttta aggttcagaa gagggccaag ttcttcgacg 300 acggcggcgc cgtctacgac caatcgtcgc cggtgagctc gatctccgac gtgacgccgg 360 aggaacacgt ggcgcactgc ctgataatgc tgtccaagga caagtggaag aagaaggaag 420 agagagatta cgaagaagaa gaatcgaaga aattcgaagt cgacgacgat aatattttcg 480 aagcggcgaa aatggcgaag actcctaaat cccgaggtaa ttccgatgcc aaggaatgca 540 cagctcttcc gttcctatca agctctccgc ggcaccgagc cagccaccag aaagtcaagt 600 tcac 604 <210> SEQ ID NO 80 <211> LENGTH: 626 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 80 cacaaacaca aacatatata caagctaggc tgatcagagg atatatacac caacaactat 60 cggatcagag gtggttgtga aaagggtaat taaataaatg gaggagcaaa taatgaggtg 120 tgaggaggag gaggaggagg aggaaataat gatggaggtg agaagagggc cgtggacagt 180 tgaggaagac ttgaccctaa tcaactacat cgcccatcac ggcgaaggcc gatggaactc 240 tctggctcgc tcagcaggcc tcaacagaac tggaaagagc tgcagactga gatggctgaa 300 ctatctccgc cccgatgtcc gacgtggcaa catcactctt gaagagcagc ttttgattct 360 cgacctccat tctcgatggg gcaacaggtg gtcgaaaatc gcgcagcatc tgccgggaag 420 aactgactac gaaataaaga actactggag aacaagagtg caaaacatgc gaagcagctc 480 aaatgtgacg tcacagcaag cattcaagga cccatgccct acctttggat gcctaggctg 540 gttgagagaa tccaagcacc tctgcatctg ctctgcctcc ggctccgcct ccgcctcccc 600 tccggccttc accactccat tacgcc 626 <210> SEQ ID NO 81 <211> LENGTH: 615 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 81 tatcgaaata tcgaggggta gcaaggcatc attcataatg gaagatggga gctcgaattg 60 ggagagtgtt tggcaacaag tatatctacc atggaacata tgccactcaa gaagaagccg 120 attatgcgta tgacatggca gcaataaaat accgcggagt taatgctgtt accaattttg 180 acatcagccg ctacattaat tgtaacatgg acgataatac acctgtggtg gaaagcccgg 240 ctgcggcgga gacttccgaa tctccgccgc tcccgattgc cggcgctgcc gcctcgccgg 300 ctgcgttagg gcttttgttg caatcgtcca aattcaagga aatgatggag ccgaatcccc 360 cgcgtagtag cttccccgat gacatacaaa catcgttcga ttttcaagat tcgagcactt 420 ttgccgaaga acatggcatt atatttggct atgactcgtt cgtgccgtcg atgtttcaat 480 gtgggctcga tgcgtgagca attcggatca tctattacat aattttatta cgtattcttt 540 tttgaatcat tgatgatatt atcaatgtac attacttgga aaaaatgggg agaaaggaaa 600 aaaaaaaaaa aaaaa 615 <210> SEQ ID NO 82 <211> LENGTH: 647 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 82 ccggccccaa ggctcctgat acggcttggg gtcatgacat gttccctgct ggaggccgag 60 cttccagtat cgagacaggg acgaaattgt atatctccaa tttagactac ggtgtctcca 120 atgaagatat taaggaactc ttttcggagg ttggcgactt gaaaagatat gttgtacatt 180 atgataggag tgggcgatca aagggtactg ctgaggtagt cttctcaaga cgacaagatg 240 ctatggctgc tatcaagagg tataataatg ttcagcttga tgggaaacca atgaaattag 300 aacttgttgg aacaaatgtt tcgacagctg gtgctggttt tccttctgct ggtgcttttg 360 gtgatgcaaa catagctcct cgaagcgcac aagggagaag tggttttgga aggccacgtg 420 gaagaaaaag aagtcgtgga tctggaaggg gccgcggaca aggaaatgga cagggaaggg 480 gccgtggtgg tgaaaaggta tctgccgaaa atctcgacgc tgatctaaaa aagtaccatg 540 cagaagcatg ccaacaaatt atccactttt tgtcatgaac tggattccct ttccctgctt 600 tctgtttttg aatacccaaa ttgaaaaaat cttttgctga ctatttt 647 <210> SEQ ID NO 83 <211> LENGTH: 633 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 83 gaaagtgaag gtgtgaaaac gaatgttggg ttagctgctt ctgaaacagc aaaagttgag 60 gtcatgactg agtccaagag caaaaaggtg gtggaccgtt cttcatgtgg atcaaacacg 120 ccttccagca gcgaaataga agctgatgcc atggaaaagc atgcagatgg gaaagagaaa 180 gaggagacgg aagaaaatga cccatttaat cgacgttgta gaagcgcaac caatgttggt 240 gattcttgga aggaagtttc acaggagggg cgactgacat ttcaggcact cttctctaga 300 gaaaaattgc cccagagttt ttcacctcca catgccaaag gcaacaaaaa atgtatcaaa 360 gaaagtgaga gagctgaaaa tggactgcaa ttagatctta atgtgacgac atggggtaat 420 agttcccagc aaaaaggcga agaagatggc aaatctttga acaaggaaga agaaccctaa 480 atattggact gaaatgcggt aagctgaaag cacaaaaact ggatttaaac cttacaagaa 540 atgttcattg gagcgaaaga atgcagggtt tcagcacatc atgacgaaga gaatgcctaa 600 aagattactt ttggaaggaa agttcccctt gat 633 <210> SEQ ID NO 84 <211> LENGTH: 602 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 84 cgcaaacgaa tagaagctcg agcggattca tggggttcaa gaatcagctt tacttatcca 60 gaggtgaaag agaagatgtg ccctataact ataatggtaa gagtactgcg gaattggctg 120 cagcgcagag cgatgaaatg aaagcatcga tatcgagagg gaagaagaaa ggcgagaaga 180 aagttaggaa gccgagattt gctttcgaaa cgagaagcca tgtcgatatt cttgatgatg 240 gttatcgctg gagaaagtat gggcagaagg cagtgaagaa caacaggttt cccagaagct 300 actatagatg tactcatcaa gagtgcggtg ttgaagaagc aagtgcaacg cctatcgaaa 360 gatgagagca ttgtggtcac tacttatgaa ggaaggcata cacaccctgt ggaaaagcat 420 agtgacaatt tcgaacaaat tctcagccag atgcatattt atcccccttt ctaaactata 480 tatacttata ttaaatatca cccaactaga aatctatctg aatctgtttt taaatatgcc 540 aatctaccag catatacttc ctatataata ccccatgctt ccagagatca attaattgat 600 tt 602 <210> SEQ ID NO 85 <211> LENGTH: 596 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 85 aaaatgcgtt aaatcggttg gtgaaggaca atgttgcttt aattttagtt cttgaagcca 60 agtttggtaa ccagggaatt gatagccctg ggaagcgtca gcttgtttgt gtggcaaaca 120 cacatgtaaa tatgcaccaa gatttgaagg atgttcggct ttggcaggtc catacactgt 180 tgaagggcct ggaaaaaatt gctgcaagtg cagatatacc gatgttggtg tgtggggatt 240 tcaattcagt gcctggaagt gctcctcatg ctctccttgc tatgggaaaa gtcgatccac 300 ttcacccaga tttagctgta gacccacttg gaattcttcg acccaccgcc aaactaacac 360 atcagcttcc attggttagt gcttactcat cctttgcaag aactggggtt gggcttgggc 420 tggaacagaa aagaaaaatg gattcttcta ccaatgaaac tctttttaca aactgtactc 480 gagattttat tggtactcat gattatatat tctattccgc cgaatcctta accgtggaat 540 ctctgtttgg aacttgtgga tgaagaaaac ttgcccaaaa atacggtctt cccctc 596 <210> SEQ ID NO 86 <211> LENGTH: 613 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 86 aaccaacaaa aagaagagtg taaagaatta atttttttcc ccttattctc attcctctca 60 tcattctcat ctctttcctc aaattcccta gtttaggatg gaagaggaaa agttgtctga 120 gaaaagtttg acttctcccg cagcttttgt ggaaggagga attcaagatg catgcgatga 180 ttcttgtagt atatgccttg aggctttttg tgatagtgat ccttccacag tgactagttg 240 caagcatgag tttcatcttc agtgcattct tgaatggtgc caaaggagct cacagtgccc 300 gatgtgctgg cagcccatca gcttgaagga tcccagcagc caagagttgc tccgaaggtg 360 tcgagcacga aaaggaatat ccgtatgaac cctcctagaa acaccaccat atttcaccat 420 ccaactctag gagactttga gcttcaacac ttgccagtta gttccagtga atctgaactt 480 gaagaacgaa taattcacac ttactgcagc agcactatgg ggagggccgt cactttctct 540 ccaaaaatca agaaataatt tccactcaaa cgtccccaat tttagtctct cactcaccta 600 atggagctct gct 613 <210> SEQ ID NO 87 <211> LENGTH: 556 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 87 cataactgga gctccaccgc ggtggcggcc gctctagaat agtggatccc ccgggctgca 60 ggaattcggc acgagctccg agttaagctt ttgagatgga agagggaagc gtagcaagca 120 gtttgatttc tgctgcagct tttgtgggag ggggaattca ggatgcatgt gatgatgctt 180 gcagtatatg tcttgaagat ttttgtgata gcgaaccttc tacgctgact acttgcaagc 240 acgagtttca tctccagtgc attcttgaat ggtgccagag aagttcccag tgcccgatgt 300 gttggcagtc tatcagcttg aaggatccca gcagccaaga actgctggat gctgtggagc 360 atgagaggaa tattcgcatg aatccaccta gaaatacaac tatatttcat catccaactt 420 taggggactt tgagttgcag catttgccgg ttaatgcaag ttgaatctga actcgaagaa 480 cgcattattc agcacctaac tgctgctgct gcaatgggga aggctctcct ctctctagga 540 gaagaagccg aagact 556 <210> SEQ ID NO 88 <211> LENGTH: 571 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 88 aaactgaact aaatttgtca cattaaaaac aaaactgagt aataaatttc cagagtatga 60 taaaaggtaa catttgacag acccctatgg aaaaacacag tatgtgatta gagaaaacac 120 tacatggaga tcacaggaga ctgacataga tatacatgtt taaaagcata aaactatttc 180 agctttttga gtacatataa aattattcca gttatacccc ctgctcaacc tggtttcgtc 240 tgaacataac aatgcgtgag caagacaaga aaaacaactc ctcatttgcc acccaaggta 300 gggaactgcc caggatcttc aatggcaggt gccctcgcat tgctcgactc aaagttccca 360 ccataaccgc ctctgggccc acgtccacgg gcccgaccac gaacaggatt gtagtgtttc 420 cctccatcag caggtttcag gaactcattg atgctcccag actttctggc ttttcttctt 480 ctcactaatc cttcttctgt cattctcaaa ccagtttgat gaaaaatcat cacggcttct 540 tgttggaaat ttttgctggt ccaactcttg a 571 <210> SEQ ID NO 89 <211> LENGTH: 480 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 89 ctatacctgg ctgggttaat cgattggctc gattaggttc tttctgtaac tgtctgctgc 60 ctgaaagtat ccaggctact acagtgacac atatgtctga tgttgaaatg tgttcagaag 120 atggtaccga cattggtgcg tcgtatgtta caggagaaag tgaagaggag gaactagacc 180 atcacctgct cacaacagca agcagtgaca tagcattttt gaaggacaaa ccagtgaggc 240 tagcaaaaga tattctttga actttgattt ctattgccct ccattctctt acctgtctca 300 attgtgtaca attagtgtgt aaatctccca ttgtattttg ttgttataca tgataatgtt 360 aaatcatttt ttgttgcatg cgtctgttat tagcatgata gtcggtaagg agcttggcta 420 tcgctctgaa tgtttggttt atgccacttt gttttggaaa tgccacctac ttgtttgttc 480 <210> SEQ ID NO 90 <211> LENGTH: 680 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 90 cttggtggtg gtgacagcgg cagttcgtac aagttcatcg caccttgcct ctactccgcc 60 tcctatccca acggtggtgc cggtggagag aaggccatgt tggtattctt gtgcgttccg 120 gtgagcccgt acgagagcag gttgatattc gcgttcccga ggaacttcgc ggcgtggatg 180 gataagatca tcccgcggtg ggtttaccac atcggagaga acatggtgtt tgactcggat 240 ctccatcttc tgatggtgga ggagaggagg ctcaaggctg tggggtccct caactggaac 300 aaggcttgct acgtccccac caaggcggat gccatggtgg tggccttcag gaggtggctc 360 aacacgtacg gaggaacgca ggtggattgg cgcaatcaag agaccgccgt tgcgccacca 420 ccacctatcc ctacccgaga gcagctcttc gacaggtact ggactcatac ggtcaattgc 480 agcagctgca gccttgccta taaacgcctc accgccttac acattgctct ccactttgtc 540 tccattgctt ccgtcgccgt cgctgctgct gccaaacata agcatactct cttttgcttg 600 ccgtcctgct gttgtgtgct ttgctgcttc caattgctgg acatttcctc tacaaacttc 660 cgctacatgg atatgatcat 680 <210> SEQ ID NO 91 <211> LENGTH: 814 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 91 ccgcaatcca ctccaaagct ctctgtaata agaatccaca gtggtatcgt aaccgccgtt 60 cgctaacgtg cgccgctgag ttagctccga ttttcacatg gcgatctctc tgcaattctg 120 ccgcatctca acgcgcgcgg agattccgct gccggagacc aggttgtctc gccggtggag 180 gccgtcctcc ctccggtgct ccgccgccgc ggaaggcgcs tcgtcctccg ccgtcgccgc 240 tgartccggc gagttcgacg cgaaggtttt ccgccataac ctgacgagga gtaagaatta 300 caatcggaag gggtttgggc ataaggagga gacgctcgag caaatgagcc aagagtttac 360 aagtgacatt gtaaagacat tgaaggaaaa cggttatcag tacacatggg ggaatgttac 420 agtgaagctt gctgaatctt atggattttg ctggggggtc gagcgagcgg tccagattgc 480 ttatgaagct agaaagcagt ttccgtctga aaacatttgg ctgactaatg aagtcatcca 540 taaccccact gttaatgaga gtcttgaaga gatgaacgtg aaaattgttc ctactaacga 600 tgggaagaaa gaatttgatc ttgtttaaca agggtgatgt tatggtyttg ccctgctttt 660 tggagctgct gtcaatagag atgaagaatt tkaatkataa gaacgtccca atagttgata 720 caacgtgccc atgggttttc taaggtttgg aatactgttg aaaacccccc aaaggagagt 780 attcctccat tatccatggt aaatatcctc tgaa 814 <210> SEQ ID NO 92 <211> LENGTH: 392 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 92 cgcacctaca agaaattgca gagttgcgtg gaattccatc atattgggtt gacagtgaga 60 agagggtagg tcctggaaac aaaatcagtc acaagttaat gcatggtgag ttggtggaga 120 aagagaactg gctaccagag ggtcccatca ccattggcgt aacatccggt gcatccactc 180 ctgacaatgt tgttcaagac gttcttgaaa agattttcga gttaaagagt gaggaagttt 240 tgctatcggc ttaaacattg cattgattag ttcaaatcca gtgaatgcac tcgatgatta 300 ggtcccgtgg attaagcaag ggtagcgtat ctcgtttctt tgctccttgt aaactatatg 360 ttgtatttat gaatatataa gcggtatcct aa 392 <210> SEQ ID NO 93 <211> LENGTH: 648 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 93 aaacagtaac cttagcttca atggcgatct ctctgcaatt ctgtcacatc tcagctccct 60 ccaccgagct ccagttgccg aagatcgggc tattccggcg accaaagcct tcctccctcc 120 ggtgctccgc cgccggagac agtactgctc ctgcggcgac caactccgac gccaaagttt 180 tccgacacaa cttcatgagg aggaaggatt acaatcgcac cgggttcggg catcaggaag 240 aaactctcga gcgaatgagc catgagtacg caggggagga catcgtacgg aaattgaagg 300 agaacggcaa cgagtacaga tggggggaag tgagcgtgaa gctagccgaa gcccatggaa 360 tatgctgggg cgtcgagcgc gctctccgaa tcgcgtacga agctaggaag cagtttccga 420 ctcaaaatat ctggctcaat aatgaaatca ttcacaaccc cacttgttaa tcagaaactg 480 ggagatatgg gggtgaaggt tcttcccggt gaaggaaggg aagaaacaat tcgattttgt 540 tgggaaaggt gacttgtggt gctgttcaca ttcggactcc tgttagatga aatgaaggtt 600 ttaaccccca aaaaccttga aattgtggaa ccaactttgc ccttgggt 648 <210> SEQ ID NO 94 <211> LENGTH: 478 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 94 cactgttccc cctcgcctcg tgaatactgg gaatacgttg cacggcggag ccacggcggc 60 gcttgtggac atcgttgggt cggccgtcat tttcaccatg ggggctccaa ccaccggtgt 120 ctcggttgag atcaatgttt catatttgaa cggcgctagt gttggggaag aagttgagat 180 cgaatccaag gcattacgcg tggggaaggc acttgctgtt gtgagtgtgg atttgagaag 240 caagaagact gggaaactta tagctcaggg gcgccacaca aagtatctgg ctctccctag 300 taaaatatga aacatagtcc cttgcttgat gcatgagcta ctctaaacga atgtattatc 360 tctgtcgagc tacttagtat acgacaacta ataatgtaaa cattgaaaac cttcaatttg 420 tagagtgaat gcattgtatg atcaagattc catgattaaa aaaaaaaaaa aaaaaaaa 478 <210> SEQ ID NO 95 <211> LENGTH: 621 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 95 tttctagtga gagaagagag agagagagag atgggaagag cgccgtgctg tgagaaagta 60 gggctgaaga gagggagatg gactgctgaa gaagatgaca aactaagaaa atatattcag 120 gaaaatggtg aaggctgctg gagatcattg cccaagaatg caggtttact tagatgtgga 180 aagagttgca gactgagatg gattaattat ttgagatctg atgtgaagag agggaacatt 240 tcttctcaag aagaagaaat catcactaat ctccatgcat ctatgggcaa caggtggtcc 300 ctgatcgccg cgcacttgcc gggtagaaca gacaatgaaa tcaaaaatta ctggaactcc 360 catttgagca gaaaatttca cggtttccgc cgccctaatc ctcagttcat tccgccgccg 420 cctcctcctc ctccgccgtc caagcccaag aagacaagaa cagtaataag aagacaaagt 480 tggcagcaaa aatcccgcca ccgtcgtcat gccgactact cccaccccgg agaaagaatc 540 ttcggtcggc agacccggga aggaaagaga gaatgaagag agagaaaacg gcactccttg 600 ctggaaaaat ttggagaatt t 621 <210> SEQ ID NO 96 <211> LENGTH: 626 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(626) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 96 cggcacgagc tcctccgacc cttcttcgtt ttcggccacg cctaagggaa acggagcttt 60 ccaggtcgag atttcgcccg ctgaaaagca ggagctgcac agtaaactga ctaagcttct 120 cacaatgttg gatgaggttg acagaagata cagacagtac taccatcaga tgcagatcgt 180 agtatcctcg ttcgacgtga tagcaggatc cagagctgct aagccctaca ctgcgctcgc 240 gcttcagaca atctctcgtc actttcgctg cctacgagat gccataaacg gacagattca 300 agtggctcga aggagcctcg gagaagaaga cgcttcttca aacgagaggg gagtcgggat 360 ctctcgactt cgttatgtgg atcagcagct tcgacagcag agggctttgc agcagctcgg 420 tatgatgcag ccgcatgcat ggaggccaca aaggggactg cccgaatcct ctgtttcggt 480 gttgagagct tggcttttcc aacacttcct tcatccttat ccgaaagatt cggagaaaat 540 catgctggca ggcggaatgg gatttgacaa aaatcaggtc tccaactggt tcctcacgcg 600 cgagtttctc tatggaaccc ntggtc 626 <210> SEQ ID NO 97 <211> LENGTH: 608 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 97 gaagagagag agagatggga agagcgccgt gctgtgagaa agttgggttg aagagaggga 60 gatggactgc agaagaagat gaaaagctca gaaaatatat tcaggaaaat ggtgaaggct 120 gctggcgatc attgcccaag aatgcaggta catatatatt actctgttta cttagatgtg 180 gaaagagttg cagactgaga tggataaatt atttgagatc tgatgtgaag agagggaata 240 tttcttctca agaagaagaa atcatcatta atctccatgc atctatgggc aacaggtggt 300 ccctgatcgc cgcgcacttg ccgggtagaa cagacaatga aatcgaaaat tactggaact 360 cccatttgag cagaaaattc cacggtttcc gccgccctaa tccacagttc attccgccgc 420 cgccgcctcc tcctccgccg tcccagccca agaagactaa gaacagttat aagaagacta 480 atgcgggcgc taaaacttcc cactgccgcc gtcgtcatgc cgactacccc ccctccggga 540 gaaagaatcc gtccggtggg gcagacccgg gaaagggaca aataaagttg aataaacaaa 600 gagagccg 608 <210> SEQ ID NO 98 <211> LENGTH: 715 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 98 tcgtcggcgc cgtcgacggc gacgagctct ccgtcgagga gcgcaacctc ctctccgtcg 60 cgtacaagaa cgtcatcggc gcccgccgcg cctcctggag gatcatctcc tccatcgagc 120 agaaggagga gagccgcggc aacgagagcc acgtctccgc catcaaaacc tacagatcta 180 agatcgagtc ggagctctcc aacatatgcg acggcatcct caagctcctc gactccaaac 240 tcatcggatc cgccaccaac ggcgattcca aggtcttcta cttgaagatg aagggcgatt 300 actaccgtta tctcgccgag tttaagacgg ctgccgagcg caaggaagcc gccgagaaca 360 ccctctccgc ctacaagtcc gctcaggaca ttgctaattc tgagcttgcc cctactcatc 420 caattcgtct cggtctggct ctcaacttct ccgtcttcta ctacgaaatc ctgaactctc 480 cggatctgct tgcaatcttg ctaaacaggc ttttgatgaa gcaattgcgg agttggacac 540 tcttggcgaa gaatcgtcca aggatacacc ttgattatgc acttctccgt gataactcgc 600 ttgtggactt cggatatgcg ggatgataac tctgaagaga tcaaggaact ccaaaaccgg 660 ataacatgaa taataatgtt ttgctaatcc ctcattaaat aaccggcaat ctgtt 715 <210> SEQ ID NO 99 <211> LENGTH: 592 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 99 ctcgtgccgt tcacatccag ataaactgta ggtggctttg tggtccaatt gttaggtgga 60 ttgattacta attgtaattg atatagcacc tacaagactt gtcaaaatcc cttaaaatat 120 attatcagtt cagaggcttc aaaaaaaatg agccaatcac catcatcaaa gacagaggag 180 ctggatattc cacttcacac tattggattc gagattgatg aactttcgcc tagcaaagtt 240 tcaggccatc ttctcgttac ttcgaaatgc tgccagccat tcaaagtgct tcatggagga 300 gtatcggctt tgatagccga gtctttggct agtatgggag ctcatcttgc ttcggggctg 360 atgaaggtgg ctgggattca cctcagcatc aatcatctca agaatgctaa gttaggtgat 420 ttcgtttgtt gctgaaacta ccctttcacg tggggaaaat attcaggtgt tggaagttcg 480 tctatggaaa aacgatcttt gaacagggag attaagacga tggttcgtct tcaaaattac 540 tctctctgtt aacatgcctg tccaaaatca cccaggatgc tgctgctatc tc 592 <210> SEQ ID NO 100 <211> LENGTH: 575 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 100 ctctgtcaag tgtcaaagat ggcgattcaa atgtgggagg ctttgaarga atcaatcaca 60 gcttacacag gcctctctcc ggccgccttc ttcacggcga ttgcggtggc gcttgccttc 120 taccagctgc tctccgcttt atttgggttt tccgatgatg ggccagtcaa acatggttct 180 agaaagttgg aagaggagga ggaggaggtg aagcctcttc cccctccagt tcagattggt 240 gacgtcactg acgaggagct caaacagtac gacggctccg atcccaacaa gcccttgctc 300 atggcaatca agggtcagat ctacgacgtc tctcagagca ggatgttcta gggaccgggt 360 gggccatacg ccctgtttgc aggaaaggat gctagtcaag ctcttgcaaa gatgtcgttt 420 gatgagaagg aactcaacgg tgatctcacg ggcttaggcc acttggagct agaagcattg 480 aaagattggg aatacaagtt catgggcaaa tatgtcaaag ttggaatgtc aaatccatgt 540 tccagctaat aatgaactgc tgctaatggt gatgc 575 <210> SEQ ID NO 101 <211> LENGTH: 622 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(622) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 101 cgcgtacaca gggctgtcgc ccgctacttt cttcacggtt cttgcgatag gcctcacgct 60 ttactacgtt gtttcgaact tgttcggttc ctccgatggc ggccgcgtcc atgagaggtc 120 gagagctttc gaggaagaga tggagcctct gccgcctccg gttcagctcg gcgagatcnc 180 cgccgaggac ttgaaactct acgacggtac tgatgcgaag aagcctctgc tcatggccat 240 caagggccag atctatgatg tctcgcagag caggatgttc tacggacccg gtggaccata 300 tgcattgttt gctggaaagg atgcaagtag agctcttgcc aaaatgtcat tcaaggataa 360 agatctgaac ggcgacctta ctgggctggg tgtgtttgag atggaagctc ttcaagattg 420 ggaatacaag ttcatgagca agtacgtgaa ggtgggaacg tgaagcaacc atgccagtaa 480 gtgacggaac ttctgaagga gagcagctga tgcttccgct tctgcttctg cgagtgatgc 540 tgggtgctaa accctgcaaa tgcttccatg gatggtgatg ttgctcaacc tgcagaagag 600 actcccctcc taagcaaact ga 622 <210> SEQ ID NO 102 <211> LENGTH: 557 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 102 gtacaagtca tgaatattga gttactatat gaatatatca gaacaatttt gaattttctc 60 aataaagaaa aatataatta aaaaaaaaat ctacgttaca gaggtttggg ctttcaacac 120 aattcaaccc gacccgactc cattgcttac agcagaagtc gttgagttga gctgcagaaa 180 tgaagtgaac cctccgaatt tttttttttt tttgcaacgg atcaacgaat cgagaagatg 240 cgttggtccc cttttctagg gattccagtt tgcttggccg tcctctcttt ctttctcttc 300 aatttcccct ctctcaaatt ccccaccaaa cctcccctgc ctaagctgtt ccctgcggaa 360 gaactagcgg tttacaatgg aactgatcca cagctgccga ttcttcttgg aattctgggg 420 ttggttttcg atgtaagtaa ggggaaaagt cattatggtg ctggaggagg ctacaatcac 480 ttctctggaa gggatgcctc tcgagcattt gtctctggaa atttcactgg tgatgggctt 540 acggatgact tgcatgg 557 <210> SEQ ID NO 103 <211> LENGTH: 646 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 103 cggcacgagc ggcacgagcc ggaatatgcc atgagtggca aactcactct gaaatccgac 60 atctatagct ttggcgtagt tctgttggag ctcatcaccg gacgcaaggc tatcgactgc 120 actaagattc agggagagca gaatcttgtg atgtggagtc ggccttattt gaaggatcgg 180 aggaaataca tacaaatcgt ggaccctttg ctggaagggc tattctcagt gcggagccta 240 caccatgcag ttgcaatcac agcaatgtgc ctccaagaac aagccaactt tcgtcccttg 300 gtgagtgata tagttctggc actcgagttc ttagcctctc aagcagagga ttctcgaaga 360 ggcagatccc acagccggac ctcgtcttct ccatctcacc tcgatgccaa aagcgattcg 420 agaaggcaag atcctgaaac ttaattcatg ctacttaatt gatgcgagag gaaacacaca 480 taaagtttga tcaaattttc atagtttatt tttactgtaa ataatggttc tgttctgtgt 540 tggtactaag gcaggtgttc attttttttt tttgtttttt ttttgggcat gaaactgtgg 600 tttttctcga gtccatattt tgttgcgtta ctatctgacc atctga 646 <210> SEQ ID NO 104 <211> LENGTH: 589 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 104 acattcgtct ctcgcgatcc tgtttctgct tttaatgtgt cacctgatgg gaagttcctt 60 gcaataggaa atattcaagg ggacgttttg attataaatt ctgccagcat gcgggtgcaa 120 aatgttttta agaaagcaca tctaggcctt gtaactgcat tggcattctc gccagattcg 180 agggctgttg tgtctgcgtc cctacattct agtgcaacgg tgaaattaat caaggagaag 240 aaggaaggtg gcatgaacaa ctggattatt ttgctcttca ttttattagc agtagcatta 300 tcatattatg cccaaagcaa cggatatcta cccctgcaac tatgattccc aaatgcaaca 360 acttgaaggc ttcaatcaca aatggcggcg ggactgagtt acattattta catactgtga 420 atatatgtac gatttagttc cttttgtctt cacaaaattc atatcgagaa tcaggacatc 480 ttttagacgt gagaaaatga gcgcatgtaa cataatagtt taccccggta ctttatatgg 540 tggccgtttg aatgatgttg aataataatt tttgactgtt aggaatggt 589 <210> SEQ ID NO 105 <211> LENGTH: 641 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 105 ctgtgaattt gctcttcacc tctgtcgtcg cccaatcctt tccctctctg ctctgcgcct 60 tcaagtacgg aactttcgtc ttcttttctg ggtgggtcgt tgtcatgact gtattcgtct 120 actttttgtt gccggagacg aagggggtgg cgcttgagga aatgggattc ttgtggcgaa 180 atcactggtt ttggaagaga tttgtgtgtg agtatcgtgg acaagaagaa gcggagggag 240 attgaagaag aaacactcgt ctctgatcat gatgcgtatt aattactccg tactattaaa 300 tttgtagttt ctgtccatag caatgggaga gttcgagtga ctagttttaa ttttaatata 360 ttaattttag cagttatatt aaaaaagtta ttaagttaaa cgagattgat aaaattagag 420 taatgtataa aaatttttat atttcaattg atacttataa gagattgatt atattccaaa 480 aaaaaaaaaa aaaaactcga ggggggggcc cggtaccaat tccgccctat agtgaatcct 540 atacaattca ctggccgtcg ttttacacgt cctgactggg aaaacctggc gttaccactt 600 aatcgcttgc agcaaatccc ctttccccag ctggggttat a 641 <210> SEQ ID NO 106 <211> LENGTH: 641 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 106 gttggtttgt tggcaacatt ctagtttaga gagagaaaga gagatggccg gaggactaag 60 cgtcggtcgg atcggtgatg tagccaagga ataccaaggc aaagtaacag cctacgttat 120 tattacatgc atccttgctt ccgtcggagg ttctctcttc ggatacgacg tcggaatttc 180 aggaggagtt acatcaatgg atgaatttct ccataaattc ttctacaaag tctacctcac 240 caagattaat ggagctccac aaccacaaag caactactgc aagtacagcg accaatccct 300 cgccgccttc acctcctctc tctacctctc cggtttggcc gcctccctcg ctgcctctcc 360 aatcacgaag aaatatggtc gccggaaaag catcctctgt ggcggcgtca ccttcctcgt 420 cggagctacc ctcaacgccg ccgccgccaa cctccccatg ctcctcctcg gccggatcat 480 gctcggcgta ggaatcggct tccggaatca ggttaattaa ttatttacta cttacttaat 540 ttctcgaaaa tcacatgctt cgcacgtttg ggatgaacgg atatttttcc gattgaaggc 600 agttccgctg ttcctgttcg aaaatggggc cggcaaaatc c 641 <210> SEQ ID NO 107 <211> LENGTH: 450 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 107 gagacaaggc tgctgccaat acttatcctt acattcagac gaaaaacccc agtgctcgga 60 ttgagcatga ggcgacgact tccaagatcg gtgaagatca gttgttctat ttccaacaga 120 gaggaatcga ctacgagaaa gccatggctg cgatgatctc cggtttctgt agggacgtct 180 tcaacgaact cccggatgag ttcggagccg aggtgaatca actcatgagc ttgaaacttg 240 aaggatctgt tggttaaaag tttgaacaat gtgctgctct ctgttgtact ctaatctgta 300 gaactttcta actttgtgag ttttattttt aatttgtaag cttcctaaaa aatggactcg 360 aacacgagat atgttaaggt ttaatcatac aagccccctt cttgttacag ttgaatgata 420 tatatatgaa ataaaaaaaa aaaaaaaaaa 450 <210> SEQ ID NO 108 <211> LENGTH: 347 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 108 ccttttttcc ctcaataaca aaacaatcaa atcaaatgtt gagtcaaaat gccatgcaca 60 agtgaaagaa tgccatattt ttttcaattt tatttcatct ttttttgttt attgaggaaa 120 atagcgagac gagaagtaag cctacaatta ctgtggaaat acaagccatc ttgagcttac 180 tgtggaaata caagcttatt aaaagttcat cccaagaaaa aaaatacgtt ccgataggtc 240 caaaagtaat tagttaaggt gttagaaata ccttggatcc aattttcagt ttttgcttcg 300 ggttgattcc atactcattt ggaataacac catctgcaag taactac 347 <210> SEQ ID NO 109 <211> LENGTH: 617 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 109 ctctcctcct cctcagttaa actgaagtgg tgggcgagat attgagtagt tgtggaactc 60 gcattttgtg tttactttga aaagtaaaca tgcctgggca aaagatcgaa actggtcacc 120 aagatgtggt tcatgatgtg gcaatggatt attatggtaa atgtctcgcc acagcatctt 180 cagacaacac tatcaaaata atcggagtta gcaactcagg atcacagcat cttgcaactt 240 taactggtca tcaaggacca gtatggcaag cgtcgtgggc ccaccctaag ttcggttcac 300 tcctcgcttc atgttcttat gatggaaagg tcatactgtg gaaggaggga aatcaaaacg 360 aatgggtcca ggctcatgtc ttcgatgatc acaaagcatc cgtcaactcc attgcttggg 420 ccccacatga attgggcttt gccttgcatg tggatcctca gatggaaaca tctcagtctt 480 tactgcaaga tctgatggtg gatgggataa gtctcgaatc gagcaactca ccagttggtg 540 ttaccctgtg ttcttggggc cccgcaacaa cccccggtgc cctttgttgg ttccggtcac 600 tcaacgctgt tcaaaaa 617 <210> SEQ ID NO 110 <211> LENGTH: 589 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 110 cttttctctc tctctctcta ggtttacgta cagacgtctg tatctatatt tagccgcatt 60 tgcatttact actctgttcg gaagtttagg cgcagctaaa agttggtagc catgaatcgg 120 ggaaacgatc ccaatccgtt tgaagaggag gaacctgaag tcaatccatt ttcgaatggt 180 ggtgggtcaa agtctcgcat tccgaaagtg gttgcaaata cattcgggtt cggtcagaaa 240 catgatgcca ccgtagacat accattagat tcgatgaatg gttcaaataa aaaggagaaa 300 gaacttgcca catgggaagc agatttaaat agaagagaga gggaaattaa acgaagagaa 360 gaagctgtta ccagtgctgg tgttcctgtg gatgatagaa actggcctcc actttttccc 420 atcattcatc atgatatagc caatgaaatt ccagttcatg cccagatttt actgtatctg 480 gcttttgcaa tttggtgagg gattgtaatt tgccttacat tcaatgttat tgcatccccg 540 tttgctggat agggggtggt ggatcaaaat ctccccttgc cataatctt 589 <210> SEQ ID NO 111 <211> LENGTH: 641 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 111 gtggattcgt taccggttac atgactttca tgtccatagg tggatttcct tcctttgtgg 60 aggaaatgaa ggtgttctat cgcgagaggc tcaacggtta ctacggtgta ggagtgttca 120 tactctccaa cttcttctct tccttgccct tcttgattgc catctcggct atcagtggaa 180 cgataacctt tttcatggtg aaatacgagt cggagttctc gcgttacgct ttcttctgcc 240 tcaatctgtt tggatgcatt gctatggttg agagtgtgat gatgattgtg gcctctctag 300 ttccaaactt cttgatgggg atcatagctg gtgctggagt tcttggtatt atgatgatga 360 ctgccggctt cttccggctg ctcccggacc ttcccaagat cttttggcgc tatcctatct 420 cgtatatcgg ttatggagca tggtcgttgc agggagggtt caagaacgac atgcttgggc 480 tcgtgtttga tcccttgttc cgggtgatcc aaagataacc ggcgaatatg ttttgactaa 540 gatgttcggg ttatctttgg atcactccaa tggtgggatc taagcgcggt ctatgctctc 600 atcataattt acaggtcctc ttcttgtgat cctcaattaa a 641 <210> SEQ ID NO 112 <211> LENGTH: 622 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 112 ctcacgtgga aggatttgag tgtggcgata gctctcagaa atggaaaaac acagacgatt 60 ctcaacgaaa tctccggcta tgctgaggcc ggaaccttga cagctgtcat gggaccctcc 120 ggctccggca agtctacgct gctcgatgcc ctgtccggcc gcctagccgc cgatgcgttc 180 cttgccggag ccattctcct caacggccgg aaggccaagt tgtcttttgg gactgtagca 240 tatgtcacac aagatgaaag cctgatcggc actctaacgg ttcgcgaaac aatcgcgtac 300 tcagctcgaa tccgcctccc tgacaaaatg cgatggccag aaaaatccga aatcatagaa 360 aacaccatcc ttgaaatggg gcttcaggga ttgtgcagat accgtgatcg gaaactggca 420 cttgcgaaga attagcggag gcgagagacg aagagtcagc atcgcagtcg agatcctcat 480 gaagccgaag ctgctcttcc tcgacgagcc aaccagtgga ctagacagcg cttcacattc 540 tttgtgactc aaacctgcgt ggattggcta aagatcaagg acattatatc ctcgatgcat 600 cccctagcag tgaaatgttt ga 622 <210> SEQ ID NO 113 <211> LENGTH: 615 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 113 cttttgatgg aactccaaag gtttaatctt tcttaataat tcttgctgaa tcttgatttt 60 agtagcattg catcttttgt aactgtagat cccttttctt gattcttgat ttggatctcc 120 ctctctctct ctccttctct ctctatatct gcatatagat aagtggaagg aatgaatggg 180 gttgttgatc ttgattcaga agattctgag tttgtagaag ttgatcctac tggaagatat 240 ggaaggtaca atgagattct tggaaaaggg gcttcaaaaa ctgtttataa agcttttgat 300 gagtatgaag ggatagaggt agcatggaac caagtaaaac tatttgattt cctgcaaagc 360 cctgaggatc ttgagaggct gtattgtgag atacatcttc tcaagactct aaaacacaaa 420 aacatcatga aattctgcac ttcttgggtc gatacggcta atcgaaacat caattttgtc 480 acagaaatgt tcacctctgg cactctcaga cagtatagga tgaaacataa gaaggtgaat 540 ataagagcaa ttaagcattg gtgtagcaga tttgcaaggg cttctttacc tccacagcca 600 tgatccactg tgatc 615 <210> SEQ ID NO 114 <211> LENGTH: 603 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 114 ggaaaatggg gaagaagaat agggggaata aggagagtaa taaggatagt aacggtgaga 60 acaagacggc ggtggataag aggtttaaga cgctgccgcc ggctgaggct ttgccgagga 120 atgagacgat tggaggttat atttttgttt gcaacaacga caccatggca gagaacctca 180 agcgtcaact tttcggttta cctcctcgct accgtgactc agtgcgtgca ataacgccag 240 gattgcctct ttttctttac aactactcaa cccatcagct ccatggagtt ttcgaggctg 300 ctagctttgg gggcactaac atcgacccta cagcttggga ggacaagaaa aaccaaggcg 360 aatctcgatt cccagctcag gtccgtgtcg taaccaggaa gatctgcgag cctttggagg 420 aagactcttt caggccgatt ctccaccact acgacggcct aagttccgcc ttgagctcaa 480 catccctgaa gctctgtccc ttttggacat ttttgctgaa acaatccttg aacgcttctg 540 cttttgataa ccgaattctg atgaaataat gaacggcatt agcacagttt attcaaaatt 600 ata 603 <210> SEQ ID NO 115 <211> LENGTH: 551 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 115 tcttacccga tcaagctttt ctatacctcc aacatgccca ttattcttca gtctgccctt 60 gtatccaatc tttacttcat ttctcagttg ttatacaaga aatatggtgg aaatttcttg 120 gtcaacttgt tgggtacatg gaaggaatcc gaatattcag gacaatcgat tcctgttggc 180 ggccttgctt actatgtgac tgcaccatca agcttagcag atgtggcagc aaatcctttc 240 catgcacttt tctatatagt attcatgctt tccgcgtgtg ccctcttctc aaagacatgg 300 attgaagttt ccggatcctc tgccaaagat gttgccaagc agctcaagga gcaacaaatg 360 gttatgcctg ggcacaggga ttccaacttg cagaaggaac tgaatcgcta tattccaact 420 gctgcagctt tcggaagaat ttgcattggt gcattgactg tgttgggcga cttcatgggc 480 gccatcggct caggaactgg aattcttctt gcagtgacat catctatcaa tatttcgaaa 540 cctttgaaga a 551 <210> SEQ ID NO 116 <211> LENGTH: 624 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 116 gcgcgttgca gctggagggg tgcttcgtcc ggtacgacaa cacgtcgttc gttggggtgg 60 aggataagac ggtggtgtcg gataagtgcg ggcccatgat gagcgacgac gactcgggcg 120 tgttgacccg gcgcgacgcg gtgctgagtt acctgggcgc gggcgggcag tacttccgtg 180 tgagcggggc ggggaaagtg cagggtgtgg cgcagtgcac ccaggacttg agtgtggtcg 240 agtgccagga ttgcttgtcg gaggcgatcg aacggctgaa gacgcagtgt gggtccgcct 300 cctgggggga tatgttcttc gccaagtgct acgcgcgcta ctcggagcgt ggctacacct 360 ccaaacacga aaatgatgat gaggtggaga aaaccctagc catttttatt ggacttgtag 420 ctggtgttgc aatactcgtg gtcttcctct ctttcttgag taaagcttta gatcacaaag 480 gtggtggaaa ataaaccaac aaaatggaag aatttgtaaa agtttgcatc atatgtggta 540 actttctttt ctaattgggt tcccttttct tctaccttat tgagccaccg aaagaaattg 600 aagaatgaaa aattccctat ggtc 624 <210> SEQ ID NO 117 <211> LENGTH: 537 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 117 cagacgtggg ccttggttat atagggcagt acagtatgaa agtgagatgg atgcttctcg 60 ggtatgttgg ggagtccgat caagggcttc tagaattttc caaagggtgc ccgagtctcc 120 agaagcttga aatgagaggg tgttgtttta gtgagagagc actagctaca gcttctcttc 180 agttgtccgc ccttcgatat ttgtgggtgc aaggatatgc tgcatctgga gatggtcgag 240 atcttttagc aatggccaga ccaaattgga atatcgagtt gataccagct acaaggcata 300 ttgttcatga tgcagaagag gcaacgatta gtgatcgttg aagaccctgc gcatattctt 360 gcttattatt ctcttgctgg gcaaaggaat tgatttccct agtactgtta ttcctctgga 420 tcctatgctt tcggcaattc ctaactgtga tgaaacaggc catggctggg gataatttcc 480 ggaacttact gtaagtttta aatattgaag aattcctgtc cattttcgaa ttgtttt 537 <210> SEQ ID NO 118 <211> LENGTH: 489 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 118 ctcgtgccga tgagattaat cagaaccacg agtcgaaaat cccggataat ttgagtagaa 60 atgttggcct aattagggaa ctcaacaaca atataaggag agttgttgat ctctattctg 120 atctctccac ctcattcact aaatcaatgg atggttcgtc cgaaggcgac tcgagcgggg 180 gtttcaagtc cgatggaaaa gggcacaaga ggcatcagcc cgggtaaggc tttctcgggt 240 tcttgattct tgttgctctt gaaagggaat ggagaaaaag aagaaaaaaa agaagaagag 300 gaacgatgtt tagtttttgt gtaagtttgt agctcaaatc tctcaccact agtttatatt 360 gattgcatcc taaattgctt acctatagaa aaataatagt ggcactaaat catctattat 420 tagtcttgct tttgtaactt tttatgtact tgttctgatc taattgaatc aagaattatg 480 tggagtgaa 489 <210> SEQ ID NO 119 <211> LENGTH: 464 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 119 tacaaagata atagtatatg aattatctgc aaatattaaa tgaaattaca gaatatgaat 60 ttgccttcga atactgctac agcaaagata acacaagctt ttatatgccc tacaaagttt 120 tctctcagtg gcatttattt tttacatcac cattaaaaag aaaaatctta agctgctttc 180 gttacagcag cgtgtattgc atcagcaagg tgtgggactg tcttcgaact cagaccagcc 240 atgcttattc gaccatcaga cgtgaggtag atgtggtatt cattggtcat gaaggctact 300 tgtgctgaat tgagtccggt gaaagtgaac atcccgattt gcttgataat gtgactccaa 360 tcaccaggtg ttcctctact acgtaatgca tcaaacagtt gcttgcgcat actgatgata 420 cgatcagcca tgggcttcag ctcgacttcc cattcttgaa acat 464 <210> SEQ ID NO 120 <211> LENGTH: 597 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 120 ccgccgccgc cgccgccgcc ggatacatgg acgccgtatc tgagtgggga aacacccctc 60 tcgccgccgt ggaccccgag atccacgacc tgatcgagaa ggagaagcgc cgccagtgcc 120 gcgggatcga gctcatcgcc tccgagaact tcacctcctt cgccgtgatc gaagccctag 180 gcagcgccct caccaacaag tactccgagg ggatgccggg caaccgctac tacggcggga 240 acgagtacat cgaccagata gagaacctca cgcgctcacg cgccctccag gcctaccgcc 300 tcgacccgac caagtggggc gtcaatgtcc agccctacag cggctcccct gccaacttcg 360 ccgcctacac ggggggtgct caacccgcac gaacgcatca tgggcctcga tctgccctcc 420 gggggccatc tgacccacgg gttctacacc tccgggggga agaagatctg ccgacctcca 480 tctacttcga gagcttgccc tacaaggtta attccacgaa cgggttatcc attaccataa 540 attggaagag aaagggctgg atttccggcc ccactgatta tctgccgtgg ggatgct 597 <210> SEQ ID NO 121 <211> LENGTH: 689 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 121 cggcgcgctt ctcctctgcg atatggcgca tatcagtggc ctcgttgctg ctcaggaagc 60 tgctgatcca tttgagtact gcgacatagt aacaaccacc actcacaaga gtttaagggg 120 tccaagggct gggatgatct tctaccgaaa ggggccgaag ccaccgaaga aggggcagcc 180 tgaggatgca gtctacgatt tcgaggacaa gatcaacttt gctgtcttcc cctcccttca 240 gggcgggccc cataatcacc agattggagc tcttgcagtg gccctgaaac aggccatggc 300 ccctggcttc aaggcgtatg caaagcaagt gagggcgaat gctgttgcgc ttggaaacta 360 tttgatgagc aaagggtaca atcttgtcac tggtggaact gaaaaccatt tggttttgtg 420 ggatcttcaa cctcttggac tgactggaaa caaagttgag aaactctgtg atctgtgcaa 480 cattactgtg aacaagaatg ctgtgtttgg tgacacagtg ccttggctcc tgggggaatt 540 ccatccggta cgcccgccat gagatcsaag ggggtttgtt ccaaaaaaga tttcgaacaa 600 atcgctgaat tcccccccga acccggacag tcccttaaag atccaaaagg aacatggcaa 660 gctacccggg actctcaagg gttttctcc 689 <210> SEQ ID NO 122 <211> LENGTH: 674 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 122 caaactacgg gtgcctttgt caagatccct tcgtctttgg gttctgtaaa gagcacttct 60 agaatcttcg gcttgaaggc gaagcctgat ttcaaagcaa ctgccatggc tgtatacaag 120 gtgaaactga tcggacccga tggtgatgag acagagtttg aggcccccga cgattgctac 180 atcctcgatt ctgctgagtc agcaggagtc gagcttccat actcgtgcag ggctggagct 240 tgctccactt gtgctgggaa aatggagaag gggacggttg accaatcaga tggctcgttt 300 ctggacgaca aacaaatgga ggagggatac cttctgactt gcgtttccta tcccactgca 360 gattgtgtga ttcacacaca caaggagggt gatctctact gattgatcat cctctctctc 420 ttgagctagt aagttaaaaa aatctgtttt tgttgctgtg tagggatgaa caatcgaaat 480 cgtgctttct tgatcaactt cagttagcaa ctcttgtgta tttgtttttt tctatgtcct 540 cctgtgttaa tgttggtaat ggaaaatgtg gtgttgggaa tgcttaaaca ttcatgtagt 600 caaattatat actagtcaaa taaattacgg tgttctttga ttcaaaaaaa aaaaaaaaac 660 tcgagggggg gccc 674 <210> SEQ ID NO 123 <211> LENGTH: 456 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 123 tttcgatgga attgttgccc atttccagcg aatcacattt cgatcgcatc gtcgccgagg 60 cccaacagca agaggagtcc attgtcattt tatggatggc gagctggtgc aggaaatgta 120 tctatttgaa acctaaactc gaaaaactag ctgccgaata ctatccaaga gtaagattct 180 actcagttga tgtgaatagt gttccccata aactcgttgt tcgtgctgaa gttactaaga 240 tgcccacgat tcagttgtgg agggatggca agaagcaagg agaggtgatt ggaggccata 300 agccctactt agtaattaac gaggttcgag aaattataga aaatgaaaat agtttgtaaa 360 ttgtttacaa ggatttcatt tccattttct ttctgcattt tctgcataga aaagaaaatt 420 aaatctaatt tgtgttaagt aacttgttcg gttcga 456 <210> SEQ ID NO 124 <211> LENGTH: 509 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 124 gaagatagag agagaaagcg agtgagaaga aatggcttcg tcggaatctg aaggacaggt 60 gatcggctgc cacaccactg atacctggaa cgagcagctt cagaaggcga atgataacaa 120 gaagttggta gttgtggatt tcactgcttc ctggtgcggg ccttgtcggt tcatcgcccc 180 tttcttcgca gaattggcca agaagttccc taatgtgaca tttctcaagg tggatgtcga 240 tgagttgaag tcggttgcta gtgactgggc agtggaggca atgccaacct tcatcttcct 300 caaagaaggg aagatcttgg acagagtcgt agggagcgaa gaaagaagag ctgcaggcaa 360 atattgctaa gcacctcaac acagctacta gtactgctta gagctatgct actcagtttg 420 cttagttaga ctagactcaa aactctttat tttctcttgc agacttatag taatttcaga 480 catatgattc aataaatgcc tcttctatc 509 <210> SEQ ID NO 125 <211> LENGTH: 491 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 125 ctgtagggaa aaccagtcat tttgaagtat gtcaagtttc agaatgtacg gagcttgaca 60 attttcatcg aggacaacca atctggttct gaaattacta aagttcaaaa gattgctctc 120 tttggatcaa cgtaagtgtt tcattgcact cctgccttga acatctattg ctttaccatt 180 gcagaattaa agtaggatga ttcagtcagc aagtttctta ataccaatca ctaaccggca 240 actatgcctc atcttcttga tctatacggt gcaaaagaaa tgttgtttcc agctttattc 300 tctacagtct agcaattgaa acatagtatt tgagtaaaat aaatctattt tgcttttact 360 aatgatgtct atgagatttg ttttatcact tacattttat attgttaaga gtgttataat 420 gtgatccttg taaggcatct gaaatggtta gacatcttct ttcttccaga aaaatctttt 480 aagctcacta a 491 <210> SEQ ID NO 126 <211> LENGTH: 479 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 126 tcgattcgag cttcgtgagg aaaaagaaat ggcgcttccc aaagccaagg aaatcgtttc 60 ttcaacccca gtcgtcatct tcagcaaaac ctactgttct tactgcgcga cggtgaagaa 120 attgctgaag gagctcaacg tctccttcaa ggccattgaa ttgaatgttg aggatgatgg 180 agatgatata caatccgctc tatctggatg gacggggcag cgcactgtgc caaatgtgtt 240 tattggtggc aaacacatag gtggatgcga tgcaaccact gcattgcata gggatggaaa 300 gcttgttccg atgctgactg aagctggagc agtagccaaa gttgaatcct ctggtgtctc 360 caaagcatct atctagagta ctagctgaac tttataatgc tcattaagtg cgacttttat 420 gataatgtta cctcccagtc ttattttact acttatgatc atgtgatatt tgtctgtct 479 <210> SEQ ID NO 127 <211> LENGTH: 501 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 127 gaacactatt gctcagaagc cagtcgtggt ttactccaaa acttggtgct cgtactcttc 60 ggaggtgaaa tctttgttca agaggcttgg tgtggagcca tttgttgttg agttggacct 120 attaggtgct caaggatcac aactgcagaa gactctagaa aaactcactg gacagcatac 180 agttcccaac gtgttcatag ggggcaagca tatcggcggt tgttcagatg cgattaattt 240 acatcagaaa ggggagctcc agcctttgct atcggaagct ggtgcaacta agtgaaaatt 300 cacttctaag acataataat atacattggc atctcctaca taacataata acatgttggc 360 ctcggtatct tttctctatg gattgaattt tcatttattt atttattttt catttttatt 420 tttgtgaatc tcattttcct gtaagagtat ttgttatatc tgcgacattt gtttataagg 480 atatttcacc attatttaac t 501 <210> SEQ ID NO 128 <211> LENGTH: 199 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(199) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 128 atcaaatctg ccgaaaaact agagagagag agttaagaga gagagagaaa ggggaaaatg 60 gcaggaatta tccacaagat cgaagagaaa ctggggatgg ggggcaagaa cgaangagag 120 gtggagaaga angccgagca cggctacagc ggcgaccaca acaagcaggc ggagcacgcc 180 tacggatcgg gggatcacc 199 <210> SEQ ID NO 129 <211> LENGTH: 373 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 129 gaaagaaagg agaaaatggc aggaattatc caaaagatcg aagagaaatt ggggatggga 60 ggcaagaagg aaggagaggt ggagaagaat gccgaccacg gctacagcgg cgaccacaac 120 aagcagccgg agcacggcta cggatcggga gatcaccaga agaagccgga ggccgagcac 180 aaagaaagca tgatggagaa gatctaagat tagatcagcg gtggcgacgg tgagaagaac 240 caccgcgacc gcgaaggcca gaagaagaag aaggaccaga aggaccagaa ggagcacgga 300 caccatcacg acagcagcag cagcgaccgc gattgatcat cgcgtttgtt cgttactagt 360 gggatgccaa tat 373 <210> SEQ ID NO 130 <211> LENGTH: 628 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 130 tcatgcactg tcaaaccaat tgtacaatag aagtaaagga aatctgagga aacaagaaac 60 agtctaagcg aagatggtgg cgcagccgat gatatggtca ctctccgcca tctctcctcg 120 ccgagtcagc cgattttctg gtgtagcaat ggcgtctgcg agctcgaagg tagaaaatgt 180 taaagttggt aaggggttgg gtgatttgcc taatgttact ttgacttctg ttcacggaag 240 tgaggcggag ctgtatctct atggaggttg cgtcacatca tggaaagtaa caaataagga 300 cctcctcttt gttcggccag atgccgtgtt cactgggcag aagcccatca gtggaggaat 360 tccgcactgt tttccacaat ttggacctgg tgcaattcag cagcatggat ttgcaagaaa 420 tatgaattgg tctgttgtta gttctgaaac cttgggaagg aaatccttct gtaactctgg 480 agctgaaaga tggtccatac agccgttcta tgtgggatta cagtttccaa gctctatata 540 aggttactct tgaacaaaag tacccctcaa cggagtttaa aattataaat accgatgaaa 600 aacctttttc atttaccacc gctcttca 628 <210> SEQ ID NO 131 <211> LENGTH: 646 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(646) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 131 cgtcggagct cactacttcg accgccagga gcccaactct cccactgttt acgactggct 60 ttacagtggg gatacgagga gcaagcacca cgagaaagtg taacgggaat cgagatccgc 120 ggcggcggtg gcggctgcat gtaaatagcg tacaagtctg cgttttgggt ggaggagagc 180 ctctacgtat atgtgtgcgt atgtatgcgt ggggtttaat taatgatgtg gttatatatt 240 aaggtatgat taagcgagtt aagtatgttt aatttggccg actgttttga gtttgtgatt 300 taatgggttt aggccttgct tttgttttga ccgtatatat atatatgaaa taactgagat 360 ctggattttc ttaatattta tgtcaaattt atgttcttag ttttaacatt tcnnatcaag 420 aagttgcgta taatcaattt gggatttgca tcaatttatg tcgagacttg tttggagctt 480 ggaagacata attgaatggt caaattagta gagaccgagg cctatgttca taacgttgca 540 aaatataaaa tctttctgga attaatatgc ctatgntgag gaaagattac atttaaagtg 600 cctatgcctc aaataaagat gttgggccaa ccatggcttt agttat 646 <210> SEQ ID NO 132 <211> LENGTH: 650 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(650) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 132 cccaactcca attcacacat aagagagaaa tctagagaaa gagatttaga gaaagtgaga 60 tggagaattc gaagagagaa gtaaagcacg ttctgcttgc aaagttcaaa gaagaaataa 120 ccgaggaaga gattgaagag agcctcaaac gcgttgccaa acttgttgat cttatcccat 180 cattgaaagc ctgccaatgg ggtaaagaga tgggcattgt aaacttacat caaggtttca 240 ctcatatttt tgaattaaca tttgaaagtg gagaaggcgt tgctgagtat atgtcacatc 300 ctgagcacgt agaatttgga aaattcatca tgcctaaatt ggagaaatca attctagtcg 360 attttgaggc cntcnaaatt taatcccaaa tttataacaa ggatgacact acatacatgt 420 atccaagtta ctatttaatt atgttatgtt ttggtttggg ggcaaattag gggagtatat 480 atgtatgcat ataaactccc taattttagc ctaactttcc attatgtatc ttgggtattc 540 ccaattaata aatattcagc cttcttgatc aaaaaaaaaa aaaaaaaacc gagggggggc 600 ccggtaccaa ttccccccat agtgagtcgt ttacaatccc tggccgtctt 650 <210> SEQ ID NO 133 <211> LENGTH: 614 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 133 acgctgaata tatattatat tgaaaacaat taatataaac tgcagatcat atatatattt 60 atagatctat agttcatatt ttttttctta tttcttacat taggcgtcct ttttatttga 120 actcctcctc tcgtacattc atgtaatgaa tttttatgat gggactttgg tggtctcgaa 180 gtcaaataca gcaaacttat ctagtttagg caagaaaaag attgcaaaat caacatgacg 240 tggatgatac ataaactcaa caacgccttc tgcactgtca aatgttgttt caaacacatg 300 agtaaaatct tgatggaagt ttgctatcgc catctcttta ccccatttga aggatttcat 360 tgaaggtacg agatcaacca tgtccgaaaa ccctttgatg cactcttcaa tctgttcctc 420 agacacttgt tccctgaact tcgcaaggga atatatgatt tactactttt ctcgtgccga 480 aattcggcac gagaagatat cgagacatgg gcagtgagtc ctccaggaac aggctggctt 540 tttggatcaa gggttacatc tgattcaatc atatcacaaa cttgaccttg tttgtcgtgc 600 ccccacttgt tcaa 614 <210> SEQ ID NO 134 <211> LENGTH: 634 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(634) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 134 gggctgcagg aattcggcac gagaataccg aagaaaatac ccacgaagng tgcccaccat 60 caggggagta gcgttctctg agatgatatt tcaactttat gcaaagattc aattaattta 120 atatttttaa acagtttatg ttgtcttaca atattgaatt tctcgatatt gctaacaaaa 180 ataatttatt attgataaaa attttaatat atatacaatt cgtagatttt atatgagcat 240 agttacattt gtatggatat taatgaatgg atcatttgat tgtgttgtgg caagggtaaa 300 gagttggcta tagcaaaatt ccaaatggat tttattcatg tatttgaatt aacatttgaa 360 agtgcagaag gcgttgatga gtatctttct catccacacc acgttgatta tgcaaacttt 420 ttcttgccta aattagagaa gtttgctact gttgatttcc agaccaccaa agtcccatca 480 ttaattaact acaaaggtgt tacacttaca acatgaatga gtgagaagaa gagatctaat 540 aaggacctta atgttgaaaa ataagaaaat atctgaatta ttgatcttta tatgacccgc 600 gatctaaatt taccattccc tataatacat atac 634 <210> SEQ ID NO 135 <211> LENGTH: 535 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(535) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 135 ccgtcgccta aagtgacggc ggataagctg gtggctcgat tcctcgaggc gaattcttct 60 gcggtttccg ttaaggttgg cgacgatgtc cagctggcct acactcacag taatcagtct 120 cctttgctgc cgagatcctt tgcagttaag gatgagatat tctgcttgtt cgaaggagca 180 ctcgacaact tggggagcct gaaacagcaa tatggtcttg ccaaatctgc aaacgangtg 240 cttttggtaa tcgaagcata caagactctt cgtgataggg cgccttatcc tccaaatcat 300 gttgttggcc atctcgaagg aaactttgct ttcatagtct ttgacaagtc cacttccact 360 ttatttgtgg ctacggaccc aaatgctaag gttcctctct atttggggaa tcactgctga 420 tggatatgtc ccgtttgctg atgacccgga cttgctcaag ggtgcttgtg gaaaatcact 480 agcctctttc cccaaaggat gcttcttttc cacggctgtc cggtgaattt ataaa 535 <210> SEQ ID NO 136 <211> LENGTH: 627 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 136 atttcacctt gcaaaggcca aggcaacccc aacccccctc tctcatccat ttctctctct 60 tcctttcata tcaccgccat cgtcgtcgtc tctctctctt tctctctctc aactccccta 120 aataatcaca aattttaagg aaatctcttg gcaagaattt ccatcgggag cacccttggt 180 tggtttgata agctcttgag aaagaagaca gctcggattt gcaaattttg atatttgaat 240 ttaggggttg acaagaagga cgccatggat gctaattctt gggctgctcg tttgtcttct 300 gcctccaagc gctatcaatc tgctcttcaa tctcgatctg gaatgaaatg ggatggcttt 360 gatgcagaga tgctcatggg ctttgacgag attgacatgg atgaggatat aagggaggaa 420 tatccatgcc ctttctgttc ggactatttt gatattgtgg gactctgctg ccacattgat 480 gatgagcatc ctatagaagc caagaatggg gtgtgtccag tttgtacaat gaaggtgggt 540 gttgatatgg tagctcatat aacgttgcac acgggaatat cttccagatg cagcgcaaga 600 aaaaatcgcg aaaatcgggt cacaatc 627 <210> SEQ ID NO 137 <211> LENGTH: 603 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 137 cctcaatcat acaattagcg acgccgcggg gttggcccaa ttcctgtcgg ccgtcgccga 60 gcttgcccgc ggagccgaag cccccacgtt tcttcctgtt tggcggaggg aactcctaag 120 cgctcgcgat ccgccgcgcg tgacatgcac gcaccacgaa ttcggcgtcg tctccggcgc 180 tacttttacc ccacccgcca acatggtcga gcgcggcttc ttcttcagcc ccgccgacat 240 cgccgccctc cgcagcaccc taccgccgca tctccgccgc cgcacctccg ccttccagat 300 cgcggtcgcc tgcgcatggc ggtgccgggt gatcgccctc tctccggacc ccagcgaaga 360 gatcaggatc tcgtgcatag tgaactgccg gaatcgattc gatccgccgc tgccggaagg 420 atactacggc aacgccatgg tcaacccgcc gccgtcgccg cggcagggaa gattgtgcgc 480 gagcccgttt ggagtacccg tggaactggt gcggaacgca aatcccaggc gaaggaagag 540 tacttgaaat ccgtggcgga tttattgtta ttaaggggaa gcccgctggc agggaggcgg 600 gga 603 <210> SEQ ID NO 138 <211> LENGTH: 487 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 138 ctgccctcca ccaccgccac cggaaaaaat gactcgaacg atttccgatg agagagtggt 60 gaaggtacca ccaagtgaag cgtggaagtt gtacggcact ctccaactct ccaaattatt 120 gatgggagcg ctacccagtc tcttcagcaa aattgacgtt gttgaaggcg acggtgccgt 180 cggaaccatt ctccagatct tcttcgctcc agggattgag ggaggagtga aatcatacaa 240 ggagaaattc acggtggtgg atagtgagag gcgagtgaag gagacggagg tggtggaagg 300 tggctatctg gatctagggt ttacccttta taggactaga ctcgaggtga tagcgaaggc 360 aagaagaaga agaaggacaa gaaggacaag aaggagcacg gacacgatca cgacagcagc 420 agcagcgaca gcgattgatc atcgcgtttg tacgtgacta gtgggatgca aatattgaga 480 attaaat 487 <210> SEQ ID NO 139 <211> LENGTH: 403 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 139 ccctaatcta atcccaaaat tatccaattt tattaaatat tattaaatca caaatcacac 60 tgcctcgtcg tctctataaa tagcgagctc tatacatact aactttcttc aattcgactt 120 gctcgtatac tcatttaatc aaatctgcac aaaaaactag agagagaagg agagttaaga 180 gagagaaagg agaagaaaaa aatggcagga attatccaca aaatcgagga gaaattggga 240 atgggaggga agaaggaagg agaggtggag aagaaggccg agcacggcta cagcggcgac 300 cacaacaagc aggcggagca cggctacgga tcgggagatc atcagaagaa gccggaggcc 360 gagcacaagg aaggcatgat ggagaagatc aaggacaaga tca 403 <210> SEQ ID NO 140 <211> LENGTH: 465 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 140 gagcacggct acagcggcga ccacaacaag caggcggagc acggctacgg atcgggagat 60 catcagaaga agccggaggc cgagcacaag gaaggcatga tggagaagat caaggacaag 120 atcagcggcg gcgacggcga aaagagccac ggcgacggcg aggggaagaa gaagaagaag 180 gaccagaaga aggagcacgg ccacgatcac gacagcagca gcagcgacag cgattgattc 240 tcgcctttct gcgtgactag tggcgacgcc aatatgagaa ttaaattata aaaagggttt 300 aaagaagaag aacgaatgtg ttgactgtgt gtatctccca tttgtcttgt tgttgaagat 360 gagatactat taatttatat tgcagtaatt ctctattctg cttctcccct ttatgttatt 420 tatttcagtt gtttatggag tatatgccac tttaatgttc ctccc 465 <210> SEQ ID NO 141 <211> LENGTH: 574 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 141 tttttttttt tttttttttt ttttgataaa atcctaatgc atacttcaat accatatcca 60 gatacagagc ctccgaaagg ccacaattca aacaagctga gctcccatgc gatcgatcaa 120 cacagatgaa aaacctaaaa atgatcacac ggtagaccag catagttgca acaacagact 180 aaaaacactt gagttcggct ctcaaaagga aaatggctgc atagttgcaa cgacagacta 240 aaaaggctac gagttccgct ctcaaaagga aaacaccatt tcaggtcatg agaaaagcta 300 catacaacct agtactacta gtagagagct actgtgtcca catactattg gcacatgtca 360 tgatatctta acagaaaaac attgagttgc ggacagcctc attcagctta ggcatcggag 420 gaacgggtgg agcactacca gaccccgtcc cattatggct cgatgatgtc tctgaagcat 480 cttccaactt cctccattgg cctagctgag tgggtgccat gttgagcata gcatataggg 540 ggcccaccga tttccacttt gtgctgccct ggtt 574 <210> SEQ ID NO 142 <211> LENGTH: 671 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 142 cagaacccca atcttaattc attcatcttc ttccttccga tcgttgactt cattcaacgc 60 catggccaaa agttctttta agttggaaca ccccctcgag aggcgacaag ctgaagctgc 120 tcgtataagg gagaagtatc ctgatagaat tccagtcatt gtagagaagg gtgaaagaag 180 tgacatacct gatattgaca agaaaaaata tcttgttcct gctgatctca ctgttgggca 240 atttgtgtat gttgtccgaa aaagaatcaa gctcagtgct gagaaagcca tatttgtctt 300 tgtcaagaac attctccctc ccactgctgc aatgatggct gctatttatg aggaaaacca 360 agatgaggat ggcttcttat acatgactta cagtggcgag aatacttttg gattcggatc 420 tctctgaaaa caaaatcact gggccttgtt cattctccaa agaaatcttg taacattctc 480 ttatatatta tctctctttt aattcccctc aaagaatgct cttggggttc cgtgaaattc 540 cagatttgaa tgctaatatt catattctat ggggacatat aatatctatt tccagtttcc 600 aaaattttat ttttttatgg aatggttacc ttttttgttc ccaaaaaaaa aaaaaaaaaa 660 aaaaaactcc a 671 <210> SEQ ID NO 143 <211> LENGTH: 459 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 143 ggaaaacaaa gatgaggatg gcttcttata catgacttac agtggcgaga atacttttgg 60 attcggatct ctctgaaaac aaagtcactg ggccttgtac attctccaaa gaaatcttgt 120 aacattctct taattatctc tgatttaatt cacctcaaag aatgcttctt ggcgttccat 180 gaaattcata gatttgaatg ctaatattca tattctatgg cgacatataa tgtctatttc 240 cagtttccaa gagtattgtt ttttaaggaa ttgttgcctt atttgttcct aatatgctgg 300 tgtttatttg atccatcttt gaggatgctc cgctttacaa ataaaattag tattaaatcc 360 cttggcttta ctgctgcata tgggtgctag ttgttacttg ttaggacatt atatgtaatt 420 tgttggcaca ttaccatttc cacaagtagt gatgtttac 459 <210> SEQ ID NO 144 <211> LENGTH: 518 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 144 accaaattga attccttgat tctcaacgac aaaatcttga tcctcatttc tcccatggct 60 tcttcacaaa atgaatctag attcttggct cttgctcttc tcctcgccct agctcttctt 120 gttcaaggaa acatagagtg cgagaatctg gagaaggatt catgcgcgta cgcggtgtcc 180 tcaacgggaa agcggtgcgt gctggagaag cacgtgcgga ggagcggggc ggaggagtac 240 gcgtgcacgg cgtcggagat cgacgccgac aagctgaaga actggatcga gagcgacgag 300 tgcataaaag cgtgcggcct cgacagaagc gcgctcggca tatcctccga ttctctacta 360 gaagcgcgct tcgcgaaaca gctctgctcc aacacttgct acgccaactg ccccaacatc 420 gtcgacctct acttcaatct cgccgccggt gaaggagtgt atctgccgaa attttgtgaa 480 gcacaaggag caaacgcaag gcgaagaaat ggtggaaa 518 <210> SEQ ID NO 145 <211> LENGTH: 506 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 145 cattccttca cctcgtgttg gtgtaacgat ggcctccatt ggagccacca tctacgtttt 60 cggagggagg gatgctgcac acaaggaact cgacgaattc tactctttcg acacactcac 120 gagtacatgg actcaactcc tcgagggccc tcctcatcgg agctaccact ccatgacagc 180 agacgagagg cgagtgtttg tctttggagg gtgtggtaat gccggaaggc tgaatgatct 240 gtgggcttac gatggtgttt aacaaaaatg gattgagttt cctagccccg gggtctagtg 300 taagcctaag ggtgggcccg gattggctgc aagtcctgga aaaatttggg tggtgtttgg 360 cttctctggt taagaactcc atgatgttca ttgcttccat ttggaacaag ggaattgggt 420 ttaagtccaa acgaatggcg agaaccaaca ggtccgagcg tgttctcaac actttggatg 480 ggttagcaca tatttgtttt tggtgg 506 <210> SEQ ID NO 146 <211> LENGTH: 618 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 146 ctgatccttt gcagcactgg ataaaagatg agaagtacag cacgagagtg aaggacaaag 60 aaggattccc aagttttgct ttgattaaca aagccactgg acaggccatc aagcactctg 120 ttggtgccac tcaaccggtg gagttgactc cttacaattc caataaactc gatgaatcag 180 ttctgtggac tgagagcaag gacttaggtg atggttatca cacaattagg atggtgagta 240 acattcaact aaatgtggat gcattcaacg gtgataagaa ccacggaggt gttcatgatg 300 gcactagaat tgttctctgg gagtggaaga aggatgcaaa tcaacgttgg gaaaatcgtc 360 tcacactgat ttgattatat gtggagggct tcatcgatct ttttttagta agtggatgag 420 tgcagttgat atctgtgatt tggtgagata tggctttctg ttatgagtgt gaaataatgt 480 gcatttgggt ttttaataaa ttgcactctt ttgttatgtg atacaagtac tatatttata 540 tgccttgatt ggggttgccg cttgttttgt tcctataaat acaatcttca cttccttcca 600 tggtacctta tggtaatt 618 <210> SEQ ID NO 147 <211> LENGTH: 289 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 147 ctcgtgccgc ttaaatggaa ataaaagaga tttcatggag ttaaacctgc ataacatact 60 gtccagcata tgtcccagtt atggtcgaac tctgtcccga tgccagcaag gcaattgcga 120 aaagcttgga actccaactg cctagaacat tctgtgaagt gtgaacaata aatccaacat 180 tcccatcatg agaaaacata tactatacat tatacactca aaatacagaa ataaataacc 240 atactttaag taaaaaagaa gcttcgttca ggtccaagtt cttgcagct 289 <210> SEQ ID NO 148 <211> LENGTH: 454 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 148 cggcacgagg agatttcaac tttggataag gatattttgc tcgtaaaggt gattttaatc 60 tgaaaagcat caaaccatgg ctcttgtatc tggaagaagg tcttcgttga atccgaacgc 120 tccgcttttc atccccgcgg cggtgcagca agtggaggac ttctcacctg agtggtggaa 180 cctcatcacc accgctacct ggttcaagga ttactggctg agccagcacc agggggagga 240 catcttcgga gacgagactg agggaaatga cgtcgtcgga ttgttgccag ataactttga 300 cctcggcatc gatgacgaaa tcttgaacat ggaagcgcag tttgaggaat ttctccagtc 360 ctccgagcct caagactatc tcagcagcaa ggcttgccaa agaaatcatt gaaaaccggt 420 ttcagcaaga atgggacatt ggtgaaaact ctga 454 <210> SEQ ID NO 149 <211> LENGTH: 461 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 149 ggcgatcaaa aaaaccatca aggagtgcga tgacgccgcc gcggcggggg aggagaagct 60 ctgcgcgacc tcgttggagt cgatggtcga cttcatcacg ggcattctaa ggagggaggt 120 gagcgctgtg tcaacggcct ccgacaaggc ggatagggag acgtaccggg tggcggcggt 180 gaacaagctg ccgaccgaga atgcggtggt ggtgtgccac cagcatgact atccctacgc 240 cgtgtactac tgccacaaga cgaagaccac agcggcgtcc ggggtgtcgc tttgtcaggg 300 gaagcggggc caatgcggat gcggtggctg tattccatat ggacaccgcg gcgtggatcc 360 ctcaagccct tggcgtttca cttgctgaaa ggtggccccg ggaactctta cctattttgc 420 cattttcctg cccggaaaaa tccccttgtg ttgggtctcc t 461 <210> SEQ ID NO 150 <211> LENGTH: 636 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 150 cttactggag ttccggacaa cgttgttgcc tctccgttga actcaggatc ggctttcttg 60 ggggcaaatc caaccatctc gagttcttgc catgtcatcg atcttgggat tcttgagaac 120 tacaagttta tgtgcttgtt cattgccaag atttggtgga tgatacctcg aattgggact 180 tcagcaagtg aaattccact agaaactcag atgttgttaa tggaggtagg agaaaactct 240 gtgctaggcg tggaagaaga cgaatccccc tcaatggggc agaacaaatt ctacgtgctc 300 gtgttggccg ttttggatgg agatcatagg acaactttgc aagggactcc atcaaacatg 360 cttcagttct actacgatag tggttgtgct ggtgttgaaa cttctcaagc tttggaagga 420 gttttcatta actcggggga aaatcctttt gagctgatta aggattcaat caagattctg 480 tctaaacata agggtacatt cactcacctt gaaaacaaga aggcacctgc acatttggat 540 tggtttggtt ggtgcacatg ggatgcattc tacacagaaa gtactccgaa aagggatcaa 600 agacggcctt cagaatttta aagaagggag ggcttt 636 <210> SEQ ID NO 151 <211> LENGTH: 540 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 151 tcccaatcaa ccgagaactc tacccccacg gccacttcca tctctggacg tgtaagtcca 60 cacgacgtgg aatttcttga agaaatcgca ggcgaaaact ggaccggaga ctcagccgtt 120 tatgcattca actcaggcac catttcaaga gtggcaaagg gtgaaaacct tgatgtgcaa 180 ttaggcctgc tccaatgtga gatcttcacc gtctcgccca taaagatgct caaaggtggc 240 atcgagtttg ctccgattgg gttgatcaac atgtacaact cgggaggagc agtcgaagaa 300 tgtgtggatt tcgacgaaaa gattaagatc taagcaagag gtggtggagt ttttggagcc 360 tattccagca tcaaaccaag gtcttttaag gttgacatga aagatgagga gttcacatac 420 cactctgaga atggactatt gatagtttat cttcaaagtg atgacagttt caaggagatc 480 aaattgcata ctgagacaaa ttttgtcatg caatttaatt atcactagtt ttattaccaa 540 <210> SEQ ID NO 152 <211> LENGTH: 210 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 152 ttcatctaga tggacttttc actgctgaaa gtcacaggtg tgagatgaag tatgttctgc 60 tggagatgga tcgtattctc cgccccaacg ggtatgccat catccgggaa tcgagttact 120 ttgtggatgc tgtggctacc ctagctaaag ggatgaaatg gggttgtcgg aaggaagaaa 180 cagagtacgg agtggaacag gagaagatct 210 <210> SEQ ID NO 153 <211> LENGTH: 340 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 153 gaaagctgaa agaaatgggg aattcgattc tgggtcgttt tggaatgagc gtcgacaact 60 tcaaagccgt gaaagatcca aataccggat catattcggt ctcgtttcaa aaatagggct 120 atgctatgct acatttactc tgaatatatg tcttctttgt tttgaataag agctgttcaa 180 ttatactgtc tagttgggaa catatatggc cattttttat tgtgaaattt ctcattttga 240 taatgcagta agctacatat ttgttacata acgatcagac cttttattct ttgcttttat 300 taagagtgtc aaattcttca aaaaaaaaaa aaaaaaaaaa 340 <210> SEQ ID NO 154 <211> LENGTH: 626 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 154 caccgtggtt gcgtgaacac tgtttgtttc aatacatacg gtgatattct tgtatcaggt 60 tctgatgata ggagggtaat actctgggac tgggaatctg gtcgagtgaa actttctttc 120 cattctggtc atgctaacaa tgttttccaa gcaaagttca tgccttactc agaggatcgg 180 agtattgtca catgcgctgc tgatggacag gtgagacatg ctcagattct tgaaagtgga 240 gtggagacta aactactcac agaacatgag gggcgagtgc ataaattggc cattgaacct 300 ggaagccctc acatctttta tacatgtggt gaggatggat tggttcaaca tatagaccta 360 agaactgaaa ctgctacgag cctttttact ggcaaaccta ttgtcggcca tcaatcatct 420 cgtactttgc atctaaatgc aattactatt gatccgagaa atccaaatct gtttgcaatt 480 ggtggatcag atcctttgct cgaagggggg ccggtaccca attcgcctat aatgaatcta 540 ttacaattca ctgggcgtcg ttttacacgt cctgactggg aaaacctggc gttacccaac 600 ttaatcgctt gcacacatcc cctttc 626 <210> SEQ ID NO 155 <211> LENGTH: 630 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 155 ccgccccttc tccctctccc caatttctta tcctctaatt tatttattat tacaaattcc 60 taaaaaatta tatctatatc attttctctc actttgcagc tgtattataa tctcatttgc 120 tattttctga ttgatttttg tactgatctt ctgcatccac tgcgctagta tctatcagtg 180 cggtggaatt ggtgatcgga gatggcttcg ggatcgcagg cgattaataa gatcgagagg 240 gcgcaccaga tgtacagaga gggcaagtat ggcgaagcac tggattatta caccgacgct 300 ctctccatgg ccaagaccac gccgcagagg attgcgctcc acagcaaccg cgccgcttgt 360 tacctcaagc tccacgactt caacaaggct gcagaagaat gcacctcagt gctggaactt 420 gattacaatc acacaggagc acttatgttg cgtgctcaaa ctctggtcac cttgaaggaa 480 tatcattcgg cactttttga tgtcaccggc tgatagagtt gaatccatca tcagaagtat 540 acagaaacct tcactcccgt ttgaaaacac aactggtatc gcttgctcca atacccgaag 600 atgaagcaga atttgaagag gatgatgaat 630 <210> SEQ ID NO 156 <211> LENGTH: 616 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(616) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 156 aaacgaatac atcgcgcgtt tcgactcgga atacagtgtg gtatttagcg gagagagaga 60 aagagtgagt gaggaagaca gacagaggct tggcaatgat ggggtggatc caagaacaga 120 tcgattctgt caaatccttg aatttcagac aagttctcac tcaagccgtc agcctcggta 180 tgatcgtcac ttcagcactt atcatatgga aagggctaat gtgtgtgact ggcagtgaat 240 caccantagt tgttgtgctt tctggaagta tggagcccgg ttttaaaagg ggtgatatct 300 tgttcttgca tatgagcaag gaccctattc gtgctggaga aatcgttgtg tttaatgttg 360 acggacgcga aattcctatt gtccatcggg ttatcaaggt tcatgagcgc ccagatactg 420 gggaagttga tgtccttacc aaaggagata ataatttcgg agatgacaga cttctctatg 480 ctcatggtca gctctggtta cagaagcgcc atattatggg aaaaactgtt ggattcttgc 540 catacgtagg ttgggtccca taatcctgac ggagaaccga attgtcactt tatactgata 600 ggcgcttggg atgctg 616 <210> SEQ ID NO 157 <211> LENGTH: 380 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 157 cttaacacat gcaagtcgaa cgttgttttc gaggagctgg gcagaaggaa aagcggctcc 60 taactaaagg tagcttgtct cgcccaggag gttagaagag ttgagaacaa agtggcgaac 120 gggttcgtta cgcgtgggaa tctgccgaac agttcgggcc aaatcctgaa gaaagctaaa 180 aagcgctgtt tgatgagcct gcgttttatt aggtagttgg tcaggttaag gctgaccaag 240 ccaatgatgc ttagctggtc ttttcggacg atcagccaca ctgggactga gacacggccc 300 ggactcccac ggggggcagc agtggggaat cttggacaat gggcgaaagc ccgatccagc 360 aatatcgcgt taattaagaa 380 <210> SEQ ID NO 158 <211> LENGTH: 167 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 158 ctcgtgccgc gaaacagctt ggagagaaga aggccagcga tcgagattcg ttcgacaagt 60 tcctcaagga tcggaagccc gtagatagaa gatgcgtaga tgatgaagtg gaagtggaag 120 aggaagggag gaaggagggt ggtggtggat ggactcctgc ggaggat 167 <210> SEQ ID NO 159 <211> LENGTH: 489 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 159 gagagagaga gagagagaga gagagactat agccctaatt aagctttttt cttgttcttc 60 ttttcaatat cttcttcttc ctcctctttt cgaattcctt gagagaaaaa aatggatatg 120 gctgagcagt tgtgttacat tccttgcagc tactgcaata ttattcttgc ggtaagtgtt 180 ccatgcagca gcttgtttga tgtagtgaca gttcggtgtg ggcactgcgc caatctttgg 240 actgtgaata tggctgctgc cttcccctct ctgcacgcct cctccttcca agatcttcat 300 caccatcacc atcagggtct tagctacgct ccatcggatt atagagtcga cctcggctcc 360 tcttccaaat ggaactacag gatgccaatg cagcctccta gcttcatcaa caaaccagat 420 cagagaatca tcaaccgtcc ccagagaacg gcagcgcgtt ccatctgcat acaatcagtt 480 cattaagga 489 <210> SEQ ID NO 160 <211> LENGTH: 621 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 160 aaaaatatga catgattcca acggagaact tcgtcggaga ggcctcgtct tgccaggcac 60 tatttctcca gcctcatttc tacgacaaag tcgaagataa gagcatcatc ttgaagaaat 120 ctaagagctt caccttctgc aaagaaggca taatcctcga tgcagaagac agtaccccat 180 tgcaagcaga tgttgtcatc tttgcaacgg gttataaagg tgacgagaag cttaagaaca 240 tgtttgcttc tcccaccttc caagagtaca ttgaaggatc ttcagcctct gttatccctc 300 tttataggca gatgatccat ccaagaatcc cacagatggc tgtgataggc tactcggagt 360 cgctctcgaa cattttcacg tttgagatga ggagcaaatg ggtagcagaa tttctagacg 420 aaacttttcg actgccagac atgagagcga tggagaagga gatcgagatg tgggagaagt 480 acatgaagag atatgccgga aacaagatgt ttaggagagc ttgcgttggc ggtgttccaa 540 tttggttcaa tgatcaaata tgccaaagat attgggatcg actccgaaaa ggaagaaagg 600 ttcttttccg gaatttttcg a 621 <210> SEQ ID NO 161 <211> LENGTH: 624 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 161 gagaggcaaa gatgaaagca aaaggcagcc aacagaacgt gttcgtgcgc ataataagca 60 gcccatatcg ggccctgtgc aaggcccgag acttctacgt gcggagcatg ttagactgcg 120 ccaactccaa cgccgtcggg ctgcacggtg cggcgcaggg cccgaacctg ccgaggagct 180 tcagcgccgt ctcgtccaca tcctacgagg ataacgagga ctacagggag ctagttcggg 240 ccgcctcggc ccggagcatc ggcggtggcg ttgatctcga cgcctacatc aagcaggaga 300 ggacgagaac gagggtgggc cccgcgaccg ggccgcgggc cctgccgccg aggaagcgcc 360 agcgtggcca tgggaaagga ttgatgaata gaggccgagt gcctatttcg tcgaagatac 420 taaaattagt aataataata ataatattgt tggtaataat gggaagaaaa tcaagaattg 480 aggtttatga ggaacaaaat catgccgtgg cgagaacatc attttcatga tcgttttggg 540 aaatgtgggt cccatgcctc cttgaaaaaa tctttttttt tttttggatc ttactattcc 600 taggttacca aaattgtaaa attc 624 <210> SEQ ID NO 162 <211> LENGTH: 534 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(534) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 162 tgaaaatgta atgaaactag gaactgaaat tttaaaacct ggatgtttat tttcaaatga 60 aattgagatt ttggatagaa gtcttggccc caaaagaaaa attaaaaaaa aataataata 120 aaatcctcga tttcaaaatc ttcttcttct tcaacacaga ggaaattcaa ctaatcgatc 180 tccatttccg aaccgaggaa agttcaatga acggcagaat atacgaagcc caacagcnnc 240 acttgttgga tttgcaggac aacagcggtt tgggttcgga ccctaagtca tggctctccg 300 gcgacgacct cagtcacacc atctcctctc tcaccgccgc cgccgccact gcctccgcca 360 ccggcagctt cgaccgggtc ctctactacg acctcgtcga gatgcttcct ctcgtgcaga 420 cgctcattga tcggaaaccg aatccgtcgt tttaatcgaa aggggctcta tgatctactc 480 ctaaaacgcc cttctagaag aatcccttct cccaatagac tgctgggaag gagt 534 <210> SEQ ID NO 163 <211> LENGTH: 202 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(202) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 163 gatcccccgg gctgcaggaa ttcggcacga gcaccgtggt tgcntgaaca ctgtttgttt 60 caatacatac ggtgatattc ttgtatcagg ttctgatgat angagggtaa tactctggga 120 ctgggaatct ggtcnagtga aactttcttt ccattctggt catgctaaca atgttttcca 180 ngcaaagttc atgccttact ca 202 <210> SEQ ID NO 164 <211> LENGTH: 631 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 164 aaaaaatgat cgacatccat caaaatcaaa taagaaaata tctaatgtga atatagattt 60 atatttcaaa acatttatag gtattaacaa tagcataatt ttttttaaca aaataacaaa 120 acataaatgg ttacagtttt tacttgattt tatttttatg tctttcatgc ttggtatcta 180 cttattatta tatttttacg tttagcaaat taataattca ttgaatatat tctattttta 240 taaaaaaagt ataaaactat gtattcacgt gcaacgcgct tgctatttgc tagtatgaac 300 aaatgaatga aggcctcttg tttgtatgta tggtcaaaat cccttccaat tacgtagctc 360 atagtgcttg ttgtctcatt caaattgaag gttaaatcgg agtagaaagc ttggagaaga 420 agatcagcag aaaaggaaag ggaaaattga aaagctaccc cttctaattc agatagtggt 480 gaaggtaaac cctaacccaa tccactactc gttttcattc tagattacct tcccatatat 540 agatgcaata tatagatgca gtaatcctac ttttcaatga tttaatttgg aaggaaagaa 600 aggcgaatta attgttgtcc atttaattga a 631 <210> SEQ ID NO 165 <211> LENGTH: 485 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(485) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 165 gnaaaagtac atctctaccc tgaagcaaaa gcttggaatc ctttcgccct ctaaacccta 60 accctaactt ctgattcaat accttttttc aatttgaatt ccatgaagat acgaataatc 120 gattttaaat atttttaatt taataaaaat gtctgcgatt gtgtgtggca agagatcttt 180 cttcgaggac attgacgccg cggcgtcgtc gccggccgct gcatcgccgg cttacaagaa 240 gttccgttgc tcttcgtcga cgtcgccggt ccggttcacg tactcgcctc cggttcagac 300 gagctctgtt gatcagctga aggctttgtt tcctgaaatg gaagttcagc ttttagagaa 360 agctttggaa gagtccgtca atgacttgga tttggctatt aagaaacttc atgagttttt 420 tggcgggcat ttgaacagca agattggcac aggggctgaa aaaaatgcac cattgaaaag 480 gatgc 485 <210> SEQ ID NO 166 <211> LENGTH: 788 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(788) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 166 actnggagct ccaccgcggt ggcggccgct ctagaactag tggatccccc gggctgcagg 60 aattcggcac gaggaaattt ttcttcagtc gcccttcctc ttctcgattc tccggcctcc 120 gttcatcatc tccggcgacc gtggctgtcg ccggttctcg tcttctcttc tttccctcgc 180 ctctctctcg aatttcccaa tttcaggaac cctagttccg cctctctcga atctccttct 240 ccgttgccat tttcaccgtt gctggagctg caggggatga agctggaact cgccgctgct 300 ctgccttcga tattcgccgc cactggagcc gcgaagtcat cgccgctact gcgattggaa 360 ggctgctgcg gtggccttgc cgtcacgagc ttcgatggct gccggagatt ctccgcgtgg 420 ctgcgatgtg gctgctgctg cgccgtttcc gacgtgtctc agtcgccatc gccgcgcgtc 480 cacgccgtcg cctccgttac agccgccgcg agtgaagcta cagcagcttc ggcttcttcg 540 gctctctctc tatctcctat ttttcttttc ttttgattgt taaatgttag attttattta 600 attatttcag cttctaactc tcacttcctc atttcgcagg tttgatgaag ggtgatggat 660 ctccgtggct ggatcaccga tcggcttcnc tgtggngtct ccccgtcaag gtatgtcttg 720 aacaaaaatt antggtgtag ggtgtactat cttgttcaaa aaattggant taagaagcta 780 ttgttcct 788 <210> SEQ ID NO 167 <211> LENGTH: 506 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 167 cttttgctgg ccgcggtgag acggcatcgt ctcggtgcct ccagcggctc ctgcgagctc 60 tatctccggc gcgtgtactc ttcctccatc gcccattcga cgatgcaact cctgcggccg 120 gcgagcttcc tcccgatgct cgtatattaa aaaaaatcct aattttttag agaattgggg 180 acattctcac ctccgtcgtt tcacttctga gttccggtgg tggcgagaat gccgacagcg 240 acggcgatga tttctttttc gtttatttaa attttactat tgttttattt catcaaaagc 300 tactgatttt gcctttccgt ttgcaggttc cacttgacga agatgccgct gctgttctgt 360 cgaagtatct gcagctccgt cgccgccgcg cgattccgac atcgcccagt tccgaacgtt 420 gctgctgttc agctgcaacg aagctcttct ctcgtttcgg aatgggaaag cttcttggta 480 tttaaatgaa gtgaattctc atcctt 506 <210> SEQ ID NO 168 <211> LENGTH: 290 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 168 ggagacggag aagtatgcat gcctatttga aatcaaaaac ctaatcttgg tccagtcctt 60 ttccccaaat caacctctct cgaatcaacc gatccatcga tctacaattc aaaccatcga 120 attcggagaa tcaatggaga atgagaacgg atcgtactac gacaaagccg acagcctcgc 180 gcggtgggtc ggcatgagcg tcgcgacggc gttcttcgcc tccctcgagc gctgctcctg 240 cgtcacccta accaccttcg actccgacga cgacgatgaa gaggaggagg 290 <210> SEQ ID NO 169 <211> LENGTH: 558 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 169 agaaaagaca actcacttca tccatagcaa ggttcttata attaaattta agtaagagtg 60 aattctagtt taattggtag aaaacctcca taagctttag aatctaccaa aaccatccat 120 gtatatatat ttaaccaact acaaacttga atttgggtta ctgagataaa ttgatatgag 180 gtaggaagaa gagggacata aatcggattt tgtgtaaata agaaaaaagg gctttgcctt 240 tgctgccgtc ggtgggggag aaaaacacag cggcggcggc atttaatctc gtgccgaatt 300 cggcacgagc attcccttaa ccatggaatt caacgccgcc gtctgcgccg ccttaacctt 360 catttctctt ctctcatact acctaatctg gctaagatcc gccagtacac acaagcgccg 420 ccccaggccg gcggggcgtt ggccttcctc cgccatctca acatcataaa cgggcgcacc 480 ggacttcccc ccttcaactt taggcatcta gccgataaac acggcccctt ttcgggatcc 540 gaatcagggt tcaccgcc 558 <210> SEQ ID NO 170 <211> LENGTH: 474 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 170 agacgacgga gggaataatc aggtgcggcg gggctgcgta cgcccttttg ggcctccttc 60 ttctgagctc ggtgagccgt atttcggcgc tatcggtgac tgtaaacgac gtcgaatgca 120 tatacgagta cgtgttgtac gaaggcgact ccgtttcggg gaatttcgtc gtcgttgatc 180 acgatatttt ctggagctcc gatcatcccg gcatcgactt caccgttaca tcaccagcag 240 gaaatactgt gcatacattg aaaggaacat ctggggacaa gttcgagttt aaggccccga 300 gaagtggaat gtacaaattt tgtttccaca atccttattc tacaccagag acagtctctt 360 tctacattca tgttggccat attcccactg aacatgatct tgcaaaggat gaacatttgg 420 accccattaa tgtcaaactt gctgaactga gaaaagcttt ggaatctgtc ctgc 474 <210> SEQ ID NO 171 <211> LENGTH: 540 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 171 gaaaatctga aatatatatt caaaattttc ttctgaaatt gaattttgat cacttccatc 60 aatcgcgcga tggtgtgcga aaagtgcgag aagaagcttt cgaaggtgat cgtgccggac 120 aagtggaagg aaggggccca caacaccacc gaaggcggcg gccgtaagct caacgagaac 180 aagctcctct ccaagaagaa tagatggtcg ccttatggac aaacaaagtg tatcatatgc 240 aagcagcaag ttcatcagga tggcaagtac tgccatacgt gtgcttacag taaaggagtg 300 tgtgcaatgt gcggaaaaca agtgctcgac accaagttat acaagcagag taatgtttga 360 tagatccgta tcttcagctt cttgtgatga gaatgcggta tgaactacat tctcaatgtt 420 aactgatatt tggatacttc catgttgatt ggaatgcaat cactatctaa tcattcaaga 480 atattgtgtt gttctttgta catttttgcc tccatcttgc attaccattt tactttattt 540 <210> SEQ ID NO 172 <211> LENGTH: 492 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 172 tatcttgata aatatttcaa agccaaatag catgtctagt ctcattatat tacaagtcaa 60 cgagttacat cttcctcaga ttgtctaacc tcgcctggag gtcgctgtct ataccgccat 120 cgtcgtttcc tgccgttgcc tctgcttgtg gaaccttatt cttcgacgct ggggcagcaa 180 ctgtcgtgga aggtgcatta acaagctcgt tgttgatgtc gatgccaatc tcatcaagaa 240 cctggctcac caactcttca gtctcttctt cttcctcatc tccttccaag gcatcatcaa 300 tggcgtctgc catcacttca ctcgtcagtt ccatcttctc gttctgcatt tcgaattctt 360 gcatgatttt ctgaagtgat ggtaggttca tctgcctgtt catttgcccc atggccttag 420 tcacgccttt catcgcctcc cccattgctt gagtagattc aatgtctgaa ttctgagaga 480 tacacttgaa gt 492 <210> SEQ ID NO 173 <211> LENGTH: 412 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 173 ccgggttgaa atctctgcgc accagtagag aactcctgga gggaatggtg ataaccgtag 60 aaccagggtg ctacttcatt gatgccttgt tacttcctgc aatggaaaat gcacaaacgt 120 caaagttttt caaccatgag cagatcaaca gatttagagg ctttggtggg gttcgaatcg 180 aaagtgatct gtacgtgaat ggcgatggtt gtgtgaacat gagcaagtgt cctcggcaga 240 taaaagatat cgaggctgtc atggctggtg ctccttggcc tattcaccac acagccattc 300 cttctctcac ttccaatact taatttgcta ctcattcttc atcataactc ttctctgcaa 360 agttactcta gtgttttcag tttttctttc ctaaatttgt gtggtgacta tt 412 SEQ ID NO 174 <211> LENGTH: 614 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 174 gatctatatt gattcaattt tgtctctctg attccaaatc gtgtggtctc cgatcaatgt 60 cgattgagtt gttgctgaat ttcataagtt ctcagttaag tttctcataa ttgttgatgt 120 cctcatagtg agggggagaa taattttctg gtgttgatgt tgattggggt tatttttgga 180 tatctcttag ttactctcaa gttctttctt ctctcgagca agctgcccaa gctgcagttg 240 ctgtttctca atctaatttt gttgtctatg gaagttgttc tttgaagttg tgaaagtttg 300 ttgtctaagc ttctctttct cagtttatca aatcgcaagt tgcgatctct ctctcttctc 360 tgatctaaga tcatggatat ctagatttag agtctttctt attttgtctt ctgtctctat 420 ttgagataag atttattctc tctttgttgc tattctctgc agattttcta tcactcacat 480 gaatgatttg attttcaatt tttctctatg tttccttcga tcgaatcatc ttaggttctt 540 ctttcagtct catttctctt tggctgaaat ctaattgtga atttgcactt ctccctgaga 600 atgtctgagt taaa 614 <210> SEQ ID NO 175 <211> LENGTH: 423 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 175 ctttgccatc gcgcctccgg taggctggtt gaaggaaaaa tgggtagaag atacagcaga 60 agtccatctc caaggggtta tagcaggaga taccgaagcc ctagcccaag gggtcattac 120 cggagccgag ggagagatct cccaactagt ctgctcgttc ggaatcttcg ccgtgattgc 180 aggccggatg atctccgcgg tccgtttggg gaattcggcc cgcttaagga catttacttg 240 cctcgcgact actacacagg ggagccacgc ggctttggtt ttgtgcaata tgttgaccct 300 gatgatgctg ctgaaaccaa gtatgaaatg gatggtcagg ttcttcttgg gagagagctg 360 actgttgtgt ttgctgagga aaacaggaaa aagccctccc aaatgaaatc tcgagaacgt 420 atc 423 <210> SEQ ID NO 176 <211> LENGTH: 616 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 176 gagaagatgg aagagggaga gaaagtgaaa ggggcggagc gatggacgac agccatcgct 60 aatctgacgg agatggcatc gaatctggat tctctgcaga aattactcat caagaaagcc 120 gtgtacgtcg acgatgaaac attcgccaaa gcctcgctca gctccgaaca agcccgctcg 180 atcaaggttc ttgagcaaag agtcgagact ttagaaagag aactcgattc tgccatttca 240 gcagctgctc atgctcgtac tgaaaaacga caggctgagg cagcacagaa agctgctgaa 300 atgcatgcat tcgaaattac gaaagaactt gaaaacacct ctaaagtatt tgaactgcac 360 atggaagagc tgcgtgtgaa acagcaagag atttcaaagc aggataaaga gataaaactt 420 ctcgagacca taataaagac tcttggtgga agagaatcag ttaatactgg cagctaaata 480 ccttcatgtg agtttgttca tcatacttaa gtaagatggc cgattatgta catgttgaat 540 ccccatgttt tatttatgtt aagtcttccg atgaacacct gttggtgaat tatcccaatt 600 ttcaattctt agctgt 616 <210> SEQ ID NO 177 <211> LENGTH: 620 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 177 ccagaatacg cgagtacttc tacggccctg ctaatgatct ttcgcctcat tctaacacag 60 ccaatttcag tgatttgcta atctatcgaa ttggtggtgg gccccaagcc ccacgctctg 120 ctcttccagt tggtgcagaa ccagtttctg atcgtttaag agtggctcct gttagtgtta 180 accaagactt gcaccatctt gttttagctg tctcattcgc taaagaacca gacgaaatta 240 tctccagtaa tgttgccggc ttcatctggg tcactgatat caacttcgaa agcaagaaga 300 tcacatacct tgcgccctct gctggaagtc ttcccggtaa atatttgatc gtgggaaccc 360 taacgtggtg cgaatagtat ccattgcaag ctcgtcttgt ctcgtctcgt catccttcga 420 cttcagttct ccgtgtttct gttgtaaaac tgttaacaat tccatagcct agtgcattat 480 tgtatactag ctttttcgta gcttggttgt cctgtcatta cttgtaccct aatttgctaa 540 ctttcgagct ctaaatgtgg ttcttataat aacaaacttc atttttttcc ccttgggtac 600 acttaaataa gagggcggcc 620 <210> SEQ ID NO 178 <211> LENGTH: 204 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 178 cgggaggcag gatttacaaa attcgtagtg aaaaatatca ataccgtaga gtttgtcatt 60 gaggcctatc cttgattgaa ttagtgtctc tttatttgtg ttttttgcaa aataatgttt 120 cattaaataa atattgtatc gcgtccgatc gatcttcatg tgtaatatta cgtggagaat 180 ataaaataat tgttaaaatc gaac 204 <210> SEQ ID NO 179 <211> LENGTH: 258 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(258) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 179 anaagctgga gctccaccgc ggtggcggcc gctctagaac tagtggatcc cccgggctgc 60 aggaattcgg cacgagctat atttgttcgc gtgttgtgga aacacatgca ccacgcacaa 120 acaatttgta gatacccact gacttttgta taataatgta gtcaaattgc aattttgaaa 180 attattgaac aaataaataa taataataat aataataata ataataataa taataataat 240 aataataata aaaaaaaa 258 <210> SEQ ID NO 180 <211> LENGTH: 477 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 180 cgaatttcgt gtgttgaata ctcccctcaa gaaaggaacg aaaagaaaag agggaagaaa 60 aacttaatta aaaagttgaa tatttgcagc aactcatcca tggcgatgca gacgggcgtc 120 gctgcttcta aggtcctcat cctcgtcggc gcaggtgtta ctggatctgt catcttgagg 180 agtggacagt cgtctgatat gattcccctt cctctggagt tgatttgaag atttttatga 240 ttcttaaact tcacctggca aatatgatgc cggtcttctt gctgctcagg ttcgacaatt 300 ggctaaagag atcaaggatt taggtttatc taatccaata accatctaca acggggattt 360 catcatcctc tggaagttat gcttcgtata tacttcctgc atcagctgtg ggtgcgatgg 420 gatactgtta catgtggtgg aatggatggt cattctctga tgtcttgttt gtttacc 477 <210> SEQ ID NO 181 <211> LENGTH: 463 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 181 attgatcggt gcattacctg gagcattgac agacccgact ccaatacacc cttcaggaga 60 aactcctgca gaccttgcag ctagcaatgg acacaaaggt attgctggtt atttggctga 120 atcttccttg agctcccatc tatcaactct cgaccttaag gagtcggggc agagtgatgg 180 aggggaaaaa ctggtagaaa caatatctgg aaggattgca actccagttg gagctggtga 240 tttgctccat gggctttcaa tgaaggactc tttggctgct gtcgtaatgc aactcaagct 300 gcagctcgca ttcatcaagt cttcagagta cagtcgtttc aaaggaaaca agttgaagga 360 gtatggcgat agtgaatttg ggatatccga tgaacgtgct gtctcacttt tagctaggaa 420 gaccaagaaa gcaggaggaa aacatgatga accagtcata ctg 463 <210> SEQ ID NO 182 <211> LENGTH: 683 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 182 gtcggagaca agctgcctga cgccaccctc tcctacttcg actccgccga cgagctccat 60 gccgtctccg tcgccgagct gacatccaac aaaaaggcaa ttctctttgc tgtgccgggg 120 gcattcaccc ccacctgttc gcagaaacat ctccccggat tcgcggcaaa agccgccgat 180 ttcaaggcga agggggtgga cacgatcgcc tgcatttccg tcaacgatgc gttcgtgatg 240 aaggcgtgga aggaggattt gaaaattggg gatgaggtgt tgatgctgag cgatggaaat 300 ggggatctga ctcgggcgtt gggatgcgag ctcgatctga gcgacaagcc ggtgggattg 360 ggggtgaggt ccaagaagta cgctatgtac gtcgaaaacg gcgtcgtcaa gatcttgaat 420 ctggaagaag gcggtgcctt caatgttagc agcgccgaag acatgctcaa agccatttgg 480 gtattcgttt tatcggtttg tgtaaaaaac ttctgaacat gaattcttct aatttctgtt 540 gccacatgaa ttgtgattga ataataattt cgtgttttgt tgctgtttgt tatttgtgtt 600 gttgtccaat gttttgaatt ttgatactcc ttttggtttt ctccaccatg gttttggttt 660 tctgccttgc tgttactttc ttt 683 <210> SEQ ID NO 183 <211> LENGTH: 411 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 183 gcggcttcta catacccggg ttcggccccg tcgccggcgg aggctacggc ggcggctacg 60 gcgggccggg cggaggccac tcgtcgcacg gcgtgatgag gcctatcgtc gagtgcaagg 120 agaagggccc ctgttacaag aagaagctgc agtgcccggc caagtgcttc acatcctacg 180 gaggctccgg caaggggtac ggctacggcg gcggaggcgg cggctgcacc atggactgca 240 agaagaagtg caccgcctac tgctaaggaa atgatggagc ctcgtcgaaa tattattatg 300 tgtgtaaaaa ggtggtgacg agctttactt gctgctaccg tactagtagt atctctctct 360 ccctctctct atataatata tatatatata cataagccat cgttggagct t 411 <210> SEQ ID NO 184 <211> LENGTH: 386 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 184 caattctcag ctccatcacg acgacggcga agacggcggt gacggcatcg attcagcctg 60 cgagttatta tccgattggc tgttgattct gtaatcaatc ttgatgtcca gaaagcgcaa 120 tgccattgta gctgctggct tagtagcttt tgcttcagca ggattggcat ttcccttcta 180 catggcgtcc aagtcatcca agggtccggt gatagactca tcaaaggcgc tgccgcctca 240 agctactttc cgaggacctt atatcaacac tggctctcgc gatattggac ccgattctaa 300 gatctatccg aagaaataag ttagtttctc tcatggtaga aactagaaag aagtacttcc 360 agggtgtaat gatatgaaat gaaatg 386 <210> SEQ ID NO 185 <211> LENGTH: 574 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 185 aaaaagaaaa aatggcagct ccaaacatgg ctaccatcac agcttcgctc gagagatctc 60 tgaaaaactg ctcgttgaac catcagcaca gcagcagccg aagcagcagc accgccagca 120 gcggaggagg cggaggggcg gcgccgccat cagcccccac cttggaactg aattccgaag 180 gcgccctccc tttccactgg gagcaatgcc tcgatttaaa gaccggtgag gtttactata 240 taaactggag gacggggatg aaggcgaccg aggatcctct tacggcggcg gaataccgcg 300 gcggttacta ctcggaggaa gaggacagca gctcgtgcaa cagcgacagg tcttcgtcgg 360 aatcgtctcc ttcttcctcc agagagcaat ggagcggcgg tgaagataat aatgatccag 420 aaaattgttt ttatcccgaa aagaatgaaa ataattcccc taataataat aataatgtgc 480 taatggttct gggtgccaga actgcctaat gtaattctgg tgctaaacac ttgaatttgc 540 ccccaatgtt ttggtcaact tctccccttt gatt 574 <210> SEQ ID NO 186 <211> LENGTH: 519 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 186 tccatctcct ggatggcaat ggctttcgga ggaatatgtg gcagtttaat tgggggatac 60 acccttaaca atttacagat ggataaaata tttttgctat tttcaattct accagccata 120 caactccttt catgtagttt agttgaggaa agttcagtgg gtgataaagt acttcctgga 180 cgctccagcc aaaacggagg ctcccacttt gttaatggca aagattccca tgaagataat 240 ccgaaaagcc ataataacaa ttttcctgcc aagaaagtct ggaaaaaata cttatatgcg 300 aaaaagaggg cagaagagca taaaacaagg gcctgagact gctcacgaat ctgaggtgtc 360 tttagaccca aggattcctt gattctttga aaactgccac atttttcttt gcttcgggct 420 gtcagacagc caatcatatt gaaggccatg gctttggttt ttcctgggca cacgtgactg 480 tcccaaacct ctccactata atgttctttt aaccagaac 519 <210> SEQ ID NO 187 <211> LENGTH: 454 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 187 ccggaatggt tgtgatactg ctcctcccga cgatcgtacc ggcggcggag aaaatcacgg 60 agacgctgca gcggcggtgc ctgatcgccg tccacgacga cggcgaattc agcagcttcg 120 acgagaaatc ggccaaggac gtggaaggcg ggaggaatgt tctagaagct gtctcagtgg 180 tacacgaggt ggggccactc tcgatgctgc gaagagtgga attttggctc tattttttcg 240 tttacctatt cggcgcaacg ctgggattgg tgtttctaaa caatctagcg caaatcgctg 300 agtcacgacg ttgctcggga acttcttcac tggtttcgat ctctgctgcc ttcggcttct 360 tcggccggtc ttcttccttc cttccccgag tatttttacc ccacagccaa caagatgccg 420 accacaggcg gaggccttgg gagttgatga tcac 454 <210> SEQ ID NO 188 <211> LENGTH: 415 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 188 aaaaaacatg tctctaatca ccgatgagat ccgatccgcc gcgtcggaga tgtaccgggg 60 cgacgagatc tgccaggaga aatcgaagtt cctcctgacg gaaatggggc tgcccaacgg 120 cctcctcccc atgaaggaca tcgtggaggt cggctacgtg aaggacaccg gcttcgtctg 180 gctcatccag aagaagaagt gcgaccaccg gttcgagaag atcgggaggc cggttcagta 240 cggcgtcgag gtcaccgcct acgtggagca gaagaggatc aagaagctca ccggcgtcaa 300 ggccaaggga gctcatgatg tggctcacca tctgcgatat ctccgtcgac gaacccccca 360 ccgggaagat caccttcaag agccccaccg gcttctcccg ctcttttccg gtgtc 415 <210> SEQ ID NO 189 <211> LENGTH: 622 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 189 cccaaaagca acagaccccc caaagcaaaa tccccgcctc ccgccgccgc gatgtcgtcg 60 cagcagatcg agtcccaccg cgagaacgcc gaggtctaca ccggcgacgc cgtgtgcaag 120 cagaagtcga aggagctgct ggagaagatc aacatgccga ggggcctgct gccgctcgac 180 gacatcgttg aggtcggcca caacgcggag accggattcg tgtggctgaa gcagaagaag 240 agcaagacgc actacttccg cgggatcggc cgcagcgtct ggtacgacac cgaggtcacg 300 gcgttcgtct ccgaccgccg gatgaagcgg ctcaccggcg tcaagagcaa gggagatcct 360 gatctggatc acgatcttgc gatatctcca tcaaggaccc cgaatccggc aaaattacgt 420 tcggcacccc taccggaatc tccagagctt ttcctctgtc ggcgttcgag gaagaagaag 480 tggagaagaa taattgatcg ataatttggg gattgtaaag ctctttctcg aaataaatct 540 ggtttgactg ttgttttact agactagtaa tttaagttat actccgtatt actttttttt 600 tttcgttttt ttctttcttt cc 622 <210> SEQ ID NO 190 <211> LENGTH: 562 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 190 tttcaactca ccaaaactaa agctcacaca cacacacaca acacagagag agagagaaaa 60 aaaaaaaaac aaaaaaaaca tgtctctaat caccgacgag atctgccagg agaaatcgaa 120 gttcctcctg acggaaatgg ggctgcccaa cggcctcctc cccatgaagg acatcgtgga 180 ggtcggctac gtgaaggaca ccggcttcgt gtggctcatc cagaagaaga agtgcgacca 240 ccggttcgag aagatcggga ggccggttca gtacggcgtc gaggtcaccg cctacgtgga 300 gcagaagagg atcaagaagc tcaccggcgt caaggccaag ggagctcatg atgtggctca 360 ccatctgcga catctcagtc gacgaccccc ccaccgggaa gatcaccttc aagagcccca 420 ccggcttctc ccgctctttt ccggtgtcgg ggtttgagtt agaggaagtg gagaacccct 480 ggtgaaggtg gaagaagaag aaaagccggc tgccgtggcg gccccgccgt tgaaattgaa 540 ggaggtttag gggagaaata at 562 <210> SEQ ID NO 191 <211> LENGTH: 624 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 191 ctcgtgccgc accgatgaga tccgatcggc ggcgtcggaa atgtaccgcg gcgacgagat 60 ctgccaggag aagtcgaagt tcctgctgac ggagatgggg ctgcccaacg gcctcctccc 120 catgaaagac atcgtggagg tcggctacgt caaggacacc ggcttcgtat ggctgattca 180 gaagaagaag tgcgaccacc ggttcgagaa gatcggacgg ccggttcagt acggcgtcga 240 ggtcaccgcc tacgtcgagc agaagaggat taagaagctc accggcgtca aggccaagga 300 gctcatgatg tggctcacca tctgcgatat ctccgtcgac gatcctccca ccggcaagat 360 caccttcaag agccccaccg gattctcgcg atcttttccg gtggcggcgt tcgagttgga 420 ggaggaggag aagaaccgcc cgtgaaggag gaagagaacc ggctgccgtg gcgggggctg 480 ccgcggccgc cgttgaaatg aaggaggttt agggtgagat taattaatcg atggagagat 540 gatatattgt catgctagct ctctttcttc tcatatattg ttacttattg ttcctcccca 600 ataattagtt taatttatcc aatc 624 <210> SEQ ID NO 192 <211> LENGTH: 408 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 192 cggcttcgtg tggctcatcc agaagaagaa gtgcgaccac cggttcgaga agatcgggag 60 gccggttcag tacggcgtcg aggtcaccgc ctacgtggag cagaagagga tcaagaagct 120 caccggcgtc aaggccaagg agctcatgat gtggctcacc atctgcgaca tctcagtcga 180 cgaccccccc accgggaaga tcaccttcaa gagccccacc ggcttctccc gctcttttcc 240 ggtgtcggcg tttgagttag aggaggtgga gaagcccctg gtgaaggtgg aggaggagga 300 gaagcccggc tgccgtggcg gcgcccgccg ttgaagtgaa ggaggtttag ggagagatga 360 ttatattgtt catgtcatct cttttaattt ctcatctatt tggtattg 408 <210> SEQ ID NO 193 <211> LENGTH: 364 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 193 attttgagct cccatctata tgcaatggga tcctctatat atacactcac cgtctccatc 60 ctctcctccc cacaaacgca ttcatttcaa ctcaccaaaa caaaagctcg catacacaca 120 cacacagaga agaaaaaaaa tgtctctaat caccgacgag atcagatccg ccgcgtcgga 180 gatgtacacc ggcgacgaga tctgccagga gaaatcgaag ttcctcctga cggaaatggg 240 gctgccgaac ggcctcctcc ccatgaagga catcgtggag gtcggctacg tgaaggacac 300 cggcttcgtc tggctcatcc agaagaagaa gtgcgaccac cggttcgaga aagatcggga 360 ggcc 364 <210> SEQ ID NO 194 <211> LENGTH: 783 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(783) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 194 caaactggag tccaccgcgg tggcggccgc tctagaatag tggatccccc gggctgcagg 60 aattcggcac gagaactaaa gctcacacac acacacacaa cacagagaga gagagaaaaa 120 aaaaaaaaca aaaaaaacnt gtctctaatc accgacgana tccgatccgc cgcctcggag 180 atgtnccgag gcgacgagat ctgccaggag aaatcgaagt tcctcctgac ggaaatgggg 240 ctgcccaacg gcctcctccc catgaaggac atcgtggagg tcggctacgt gaaggacacc 300 ggcttcgtgt ggctcntcca gaanaanaag tgcgaccacc ggttcganaa natcgggagg 360 ccggttcagt acggcgtcna ggtcaccgcc tacgtggagc agaagaggat caagaagctc 420 nccggcgtcn aggccaaggg agctcatgat gtggctcacc atctgcgaca tctcagtcga 480 cnaccccccc accgggaaga tcaccttcaa nanccccacc ggcttctccc gctcttttcc 540 ggtgtcggng tttgagttan angaagtgga naacccctgg tgaaggtgga agaagaagaa 600 aacccgctgc ctggcggngc ccnccgttga aatnaaggag gtttagggan anangaatat 660 attgttccgt cnctctttta attcncccna tngttattgt cnctccccat aantaattct 720 anttattttt tccatctgat nnnnnaanna aaaaaaaccc anggggggcc ggttcccttt 780 ccc 783 <210> SEQ ID NO 195 <211> LENGTH: 434 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 195 tgaaactcaa agcaagggag cagagattta ccatggacct atctccatag agaaagtcga 60 cgaaatgttg gaggaattct ccgtgcccaa atgcctgttc ctcggcctca aggccgacct 120 agtcgaggag tttggcttca accggtccac gggcttctac tggttgaagc agaagtcgaa 180 gacggagcga aagctcgaca agatcaggac cactgcttac tacgacactc aagtcagcgg 240 cttcatccag ccacgccggt tgtcgaagat caccggagtg aaggcgaagg agctctttct 300 tacacttaca gtcactgaga ttcttgtcgg catcccatct actgataagg ttaagtttgt 360 cagtactact ggtatttacc gaacactacc cattgctgcc tttgaagaaa aaaacctgct 420 gtgaaaatca gcct 434 <210> SEQ ID NO 196 <211> LENGTH: 421 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 196 cacacacaca cacacacaga aaaaaaagaa aaaacaaaaa aaaacatgtc tctaatcacc 60 gatgagatcc gatccgccgc gtcggagatg taccggggcg acgagatctg ccaggagaaa 120 tcgaagttcc tcctgacgga aatggggctg cccaacggcc tgctccccat gaaggacatc 180 gtggaggtcg gctacgtgaa ggacaccggc ttcgtctggc tcatccagaa gaagaagtgc 240 gaccaccggt tcgagaagat cgggaggccg gttcaagtac ggcgtcgagg tcaccgccta 300 cgtggagcag aagaggatca agaagctcac cggcgtcaag gccaaggagc tcatgatgtg 360 gcttaccatc tgcgatattt tccgtcgacc gaccccccca ccgggaagat caccttcaag 420 a 421 <210> SEQ ID NO 197 <211> LENGTH: 551 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 197 caaaagctca cagagagaga gagagaaaaa aaacatgtct ctaatcaccg aggagatcag 60 atccgccgcg tcggagatgt accgaggcga cgagatctgc caggagaaat cgaagttcct 120 cctgacggaa atggggctgc cgaacgggct cctccccatg aaggacatcg tggaggtcgg 180 gtacgtgaag gacaccggct tcgtgtggct cattcggaag aagaagtgcg accaccggtt 240 cgagaagatc gggaggccgg ttcagtacgg cgtcgaggtc actgcctacg tggagcagaa 300 gaggatctag aagctcactg gcgtctaggg ccaggagctc atgatgtggc tccccatctg 360 cgatatctcc gtcgacgatc cccccccgga aagatcacct tccagaaccc ccccgggttc 420 tcccgctctt ttcccgtagc tgcgtttgag ttagaagaag tggagaaaaa ccccccgtga 480 aagtggaaga agaagaaaaa ccgctgccct ggcggcgccg aggttaattc aagaggtctt 540 ggagagaagg t 551 <210> SEQ ID NO 198 <211> LENGTH: 520 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(520) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 198 actacttccg cgggatcggc cgcagcgtct ggtacgacac cgaggtcacg gcgttcgtct 60 ccgaccgccg tatgaagcgg ctcaccggcg tcaagagcaa ggagatcctg atctggatca 120 cgatctgcga tatctccatc aaggaccccg aatctggcaa aattacgttc ggtaccccta 180 ccggaatctc cagagctttt ccgctttcgg cgttcgagga ggaagangtg gagaagaaga 240 attgatcgat agtttgggga ttgtaaagct cttgttcgga ataaatctgg gttgactgct 300 gttttactag actagtagta attaagtact aatattattt ttttttcttt ttttcactat 360 tgctgttctg cttgcttaat atttaagcca agtacaacaa atatgttcaa catatgatgt 420 tattgatgtt ccatatgtga agtttgttac aattatccgt tttttttttt taatattttg 480 aatagaagga tcaatatccc tccaaaaaaa aaaaaaaaaa 520 <210> SEQ ID NO 199 <211> LENGTH: 592 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 199 ctaaagctca cacacacaca cacagcaaaa aaaaaaaaaa catgtctctc atcaccgatg 60 agattagatc cgccgcgtcg gagatgtacc ggggcgacga gatctgccag gagaaatcga 120 agttcctcct gacggaaatg gggctgccta acggcctcct ccccatgaag gacatcgtgg 180 aggtcggcta cgtgaaggac accggcttcg tctggctcat ccagaagaaa aagtgcgacc 240 accggttcga gaagatcggg aggccggttc agtacggcgt cgaggtcacc gcctacgtgg 300 agcagaagag gatcaagaag ctcaccggcg tcaaggccaa ggagctcatg atgtggctca 360 ccatctgcga tatctcagtc gacgaccccc ccaccgggaa gatcaacttc aagaagcccc 420 accggcttct cccgctcttt tccggtgtcg gcgttcgagt tagaggaagt ggagaaccgc 480 tggtgaaggt ggaggaggaa gaaaaccggc gggtgcctgg cggcgcccgc cgttgaaatg 540 aaggaggttt agggaaaaat gaatatattg ttcatgttcc cctcttttaa tt 592 <210> SEQ ID NO 200 <211> LENGTH: 385 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 200 aggacaccgg cttcgtctgg ctcatccaga agaagaagtg cgaccaccgg ttcgagaaga 60 tcgggaggcc ggttcagtac ggcgtcgagg tcaccgccta cgtggagcag aagaggatca 120 agaagctcac cggcgtcaag gccaaggagc tcatgatgtg gctcaccatc tgcgatatct 180 ccgtcgacga cccccccacc gggaagatca ccttcaagag ccccaccggc ttctcccgct 240 cttttccggt gtcggcgttc gagttagagg aggtggagaa acccctggtg aatgtggaag 300 aagaagaaaa accgctgccg tggcggtgcc cgcccttgaa attaaagaag tttagggaga 360 gataaattaa ttgttcgtgt ctctc 385 <210> SEQ ID NO 201 <211> LENGTH: 555 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 201 aaaaaaaaaa aacatgtctc tcatcaccga tgagattaga tccgccgcgt cggagatgta 60 ccggggcgac gagatctgcc aggagaaatc gaagttcctc ctgacggaaa tggggctgcc 120 taacggcctc ctccccatga aggacatcgt ggaggtcggc tacgtgaagg acaccggctt 180 cgtctggctc atccagaaga agaagtgcga ccaccggttc gagaagatcg ggaggccggt 240 tcagtacggc gtcgaggtca ccgcctacgt ggagcagaag aggatcaaga agctcaccgg 300 cgtcaaggcc aaggagctca tgatgttggc tcaccatctg cgatatctca gtcgacgacc 360 cccccaccgg gaaaatcaac ttcaagagcc ccaccggctt ctcccgctct tttccggtgt 420 cggcgttcca attagaagaa gtggagaaac ccctggtgaa ggtggaagaa gaagaaaaac 480 ccggggctgc cgtggcggcc ccgcgttgaa atgaaagagg ttagggagag atgaataaat 540 tgttcagttc atctc 555 <210> SEQ ID NO 202 <211> LENGTH: 472 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 202 gctccgaggg ttgttcacaa agacgtgagg ttaaaagaat atgacgttcc aaagggagcg 60 gtggtgatgg ttaatgtttg ggccataggc agagaccctt catgttggga cgaacctgaa 120 aagttcaagc cggagagatt ctttgactat ctgacagatt cgaaggagtt gaatttcggg 180 tggatcccgt tcggggcggg gagacggggg tgcccgggaa tgacatacag catggctaca 240 atcgagttgt tgatagcaat cattgtgctt aaatttgatt ggaaactgcc caatggaata 300 gatttggaca tgagtgagtg tgctggactt gctacgcata gtgctatccc tcttgttgca 360 gttgcctccg aggctactta atttctcatt actatatact gtatatattt tcagttgcct 420 caattctact atatgaagcc tagaacagac ccacacctaa ttaatttcta tt 472 <210> SEQ ID NO 203 <211> LENGTH: 519 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 203 aaaaaaaaca tgtctctaat caccgaggag atcagatccg ccgcgtcgga gatgtaccga 60 ggcgacgaga tctgccagga gaaatcgaag ttcctcctga cggaaatggg gctgccgaac 120 gggctcctcc ccatgaagga catcgtggag gtcgggtacg tgaaagacac cggcttcgtg 180 tggctcattc acaagaagaa gtgcgaccac cggttcgaga aaatcgggag gccggttcac 240 tacggcgtct aggtctctgc ctacgtggag gacaagagga tctagaagct ctctggcgtc 300 taggccaagg agctcatgat gtggctcacc atctgcgata tctccgccga cgataccccc 360 ccggagagat ctcttctaga gccccaccgg cttctccccc tcttttccgg tagctgcgtt 420 tgagttttaa gaagtggaga aaaaaccccg tgaaagttta tgaagaagaa aaaccgctgc 480 cgttgcggcc ccgcggttga atttaagaag tcttcggag 519 <210> SEQ ID NO 204 <211> LENGTH: 574 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 204 tttcaactca ccaaaactaa agctcaaaca cacacacaca cacacacaga aaaaaagaaa 60 aaacaaaaaa aaacatgtct ctaatcaccg atgagatccg atccgccgcg tcggagatgt 120 accggggcga cgagatctgc caggagaaat cgaagttcct cctgacggaa atggggctgc 180 ccaacggcct cctccccatg aaggacatcg tggaggtcgg ctacgtgaag gacaccggct 240 tcgtctggct catccagaaa aagaagtgcg accaccggtt cgagaagatc gggaggccgg 300 ttcagtacgg cgtccaagtc ccgcctacct ggagccgaag aagatctaga aactccccgg 360 cgtctagggc caggagctca tgatgtggct caccatctgc gatatctccg tcgacgaacc 420 ccccaccggg aagataacct tccagagccc ccgggttctc cccctctttt cccgtgtttg 480 ggttcgagtt taaagaagtg gaaaaacccc tggtgaaagt ggaagaagaa gaagaacccg 540 ctgccttgcc gggccgccgt tgaattaagg agtt 574 <210> SEQ ID NO 205 <211> LENGTH: 793 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(793) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 205 acaaanagct nggaagctcc accgcggtgg cggccgctct agaactagtg gatcccccgg 60 gctgcaggaa ttcggcacga gcagctgtgt tacattcctt gcagctactg caatattatt 120 cttgcggtaa gtgttccatg cagcagcttg tttgatgtag tgacagttag gtgtgggcac 180 tgcgccaatc tttggactgt gaatatggct gctgccttcc cctctctgca cgcctcctcc 240 ttccaagatc ttcatcacca tcaccatcag ggtcttagct acgctccatc ggattacaga 300 gtcgacctcg gctcctcttc caaatggaac tacaggatgc caatgcagcc tcctagcttc 360 atcaacaaac cagatcagag aatcatcaat cgtccccctg agaagcggca gcgtgttcca 420 tctgcataca atcagttcat taaggaggaa attcaaagaa tcaaggccaa caatcctgat 480 atcagccata gggaagcttt cagcactgct gccaaaaatt gggcacactt tcctcatatc 540 cattttgggc tcatgctgga gagcaagaac aagataataa acttgaagaa gattctgana 600 agcatcaaat gaaaanggca gccgttctga acaaatgata ctgcggtctt catcaatttc 660 aaccaaaaca tgacaaattc cagcttatta ttattatcat gataataata ataatatata 720 tcnatgttta ttctgcatta ctttgtaatt ccggtgttgt anggnactcc ctgaatgtaa 780 ttcacaagtt ttt 793 <210> SEQ ID NO 206 <211> LENGTH: 627 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 206 atatgactga gcagctgtgt tacattcctt gcagctactg caatattatt cttgcggtaa 60 gtgttccatg cagcagcttg tttgatgtag tgacagttag gtgtgggcac tgcgccaatc 120 tttggactgt gaatatggct gctgccttct ctctgcacgc ctcctccttc caagatcttc 180 atcaccatca ccatcagggt cttagctacg ctccatcgga ttacagagtc gacctcggct 240 cctcttccaa atggaactac aggatgccaa tgcagcctcc tagcttcatc aacaaaccag 300 atcagagaat catcaatcgt ccccctgaga agcggcagcg cgttccatct gcatacaatc 360 agttcattaa ggaggaaatt cagagaatca aagccaacaa tcctgatatc agccataggg 420 aagctttcag cactgctgcc aaaaattggg cacactttcc tcatatccat tttgggctca 480 tgctggagac aagaatcaag ataataaact tgaggaggat tctgagaagc atcaaatgag 540 aagggcagcc gttctgaaca aatgatactg cggtcttcat ccatatcaac caaaagcatg 600 acgaaattcc agcttattat tattatc 627 <210> SEQ ID NO 207 <211> LENGTH: 792 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(792) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 207 ggagctccac cgcggtggcg gccgctctag aactagtgga tcccccgggc tgcaggaatt 60 cggcacgagc gctagtgacc tatataaact tggccttaaa cgcaatccgg taagaactgt 120 ggaagaaagg aaggaagagt acgacagagc aagagctcgt atttttagca gtcctagtga 180 ttctggatca gaagaggcat tgccttgggc tgcttcagat gctacaaata ttaatgccga 240 tgagaatgaa gtttctagag actttggtat gcattgggag aatagacact acagcactga 300 tggtggcaat tcgtccagag tagcaattct tagagacagg gagaaggacc gcattgatcc 360 tgattacgat cgcagttatg acagatacgt tagaaatatc ccaaatgctc agaatttcag 420 ggatggctcc ttttaatatg caaaattttc cgcctcaatt cgtccaatat gactctgtgt 480 ncccacaacc aggtcagatg cttactcctc aagcttccct caactacagg accccagtta 540 tgagcctgta ctgtgccatg ggatcgggtc agaattctag ggatgcatta tatatgcagt 600 taccaatgca gacggtgatg tntgctcagt catataatca actacagcat gcctcttttc 660 agccagcatc tctaagtttc gattactgcc agcaccatcg ataacagccg aactgggcaa 720 gcttgcatcc cctctgtgtc natttaggtt gttatttcct taanacgttg taanttgtac 780 ttgatccata tt 792 <210> SEQ ID NO 208 <211> LENGTH: 651 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 208 aacaaaattg catgatatac aagaggaaag catacatatt aaggtccatt aacaaaagag 60 gtagaaatca attacctaaa tagatatctg aggataagga atttacaaat tgaacaataa 120 ctaaagcaaa ttctacaaac catagcacac tagttaggaa tatagggctg aaacaaagat 180 acataaggat tagggtcgta ctgcatgatt tctgctgctc gttcgaactc ttcccgaaga 240 accctgatgc tatacttgtc caccactctt ccgagatcat gagatgtctc gaatggatcc 300 tcgatgcaaa tcaagtgtcg gtcgtttcca actctcttag tccagtcctt tcctctctta 360 cttagcatgc ttcctgtgcg aactgagata acatcgtttg cataatcatg acagtaagcc 420 caataatgga aaaagcccca tactagctga gcaatgcttt cccgattctg aacaccgtaa 480 ttttgaagct tctccacttg atcaaaatat gccattctac gttgtctgca gttacataat 540 acgtatctgc attctctgca agcatggaaa aaggcaggtc tgcgctgttg caaaaatgaa 600 tgcaatcaac acatacccta actcgaaaaa ttccctggta atccctttga c 651 <210> SEQ ID NO 209 <211> LENGTH: 635 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 209 tgattctgca agacctctcg tgttaacttc ggatgttaca aaggtcctga aggatggcaa 60 gcgtattggt gcagctgtgc taggtgttcc tgctaaggct acaattaagg aggcaaatag 120 cgagtctttc gtggtaaaaa cactcgacag gaagacactc tgggaaatgc aaacaccaca 180 ggttattgag ccagaattgc ttaagaaagg ttttcaactt gttaataggg atggacttga 240 agtcactgat gatgtatcga tagtcgagca cctcaaacat ccagtatata tcactgaagg 300 atcatacacc aacatcaagg ttacgacccc ggacgattta ttgcttgctg agagaatatt 360 gaaccctgaa gattaagatt cttacagacc ctcaacttct ttggaagtag aatgagtttt 420 tttcttgcgt ggaagctgtt gaaggttgtg ggttgtgggt gttggtgttt ttcacatgga 480 gaatttaagt tttcattctt ttttgtatta ctactgtatt atttgttacc aagtatgcgt 540 attcttgtag tatgaataaa ctgtgaagaa tggctcccta cctaatgcgg gtgcccttaa 600 tgtgcctatg catgtcataa tttttcctat gtttt 635 <210> SEQ ID NO 210 <211> LENGTH: 607 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 210 ccgacttccc tccggtggcg gcagtcgttt agaattagca ggaaaatgtt ctagtctgat 60 cccttgttat aagtaattgc ttcgttatgg actcgagaag aaacttactt ccagcttatg 120 atgatcattc gaggatgatt catcgtggtc cattaccccc aacacaccat gacatggaac 180 cacttcctcc tgaactacta gagaacagat tggcatccca agcagcagaa atagaacaac 240 ttactgcgga taatcgtaaa cttgcagcta gttttttgac cttgaggcaa gatctcgttg 300 ctgcagaaga ggaagcaggg aaaattaggg aacatatcag aaatatccag aatgaaggtg 360 atattcaaat ccgcattctg ttggacaaga tgccaaacag ggatgctgat tctggagatg 420 tggacactat aaagaaagaa cttcaagcag cccatgctga agctcggagc ttggatgaca 480 gctaagctgg agctgtctgt taaactcgaa ggggggccgg taccaattcg cctatatgat 540 cgtattacat tcactggccg tcttttacac gtcgtgactg ggaaaacctg gcgttaccca 600 cttaatc 607 <210> SEQ ID NO 211 <211> LENGTH: 286 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 211 tgaacatcca gtgcaaggtt tgcatgcaaa catttatttg caccacttcg gaagtgaaat 60 gcaaggagca tgctgaagca aagcatccga aagctgatct tgtcacttgt tttccccacc 120 tcaagaaatg attcaaagct tattatatca ccggagaccg gttatcatct atatctctga 180 tctgtcaatg tgtttaatgt gaagctttct tggttctgat attgagatga ctgttcaaaa 240 cttgttatgg ctgattcgat tgaaactcta tggtatatct tcgatt 286 <210> SEQ ID NO 212 <211> LENGTH: 359 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 212 cccgaactct tctttacagg ccgaccatgc tctccatgtt ggccattgct gctgtttgtg 60 tgtgtgttgc ccttcttttc aagagctctc ccaaagttct attcgtgttc cgccccttca 120 gttgggagat gttggagtac ggttccagct aaatcaatct taactaattt ccttgtatga 180 tgtttgttgt gtgtattgta ctattgtatt gtatttataa attgtaaagc tgaggcacct 240 gagtataagt tgtagatgac cacttaagat ttcactagga ttgacaatat aacttaatgt 300 tgtaccatga aattgtctct cctcttcgac tcgagtataa aagcaggccc gcaatgtgt 359 <210> SEQ ID NO 213 <211> LENGTH: 473 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 213 taaaaccaaa ccaaaaacca aaagaaaaaa aatctcccca aatcaatcta aaaaaaaaaa 60 aaaaaaaaag aaaaaaaact aaaaatcaaa atcggaattc ggagatggga gtggtgataa 120 tcgacggcac gacggtgagg tcgttcgtga acgacgaggc gcatttccag aaaagcgtgg 180 aggaggcgtt cgcggcgctg gacctgaaca gcgacggcgt cctctcgcgg tcggagctcc 240 ggcgcggctt cgagtcgatg cggctgatcg agaccgactt cggcgtggac acggcgacgc 300 cgccggagga gctgacgaag ctgtacgact cgatcttcgc caagttcgac tgcgacggca 360 gcgggacggt ggaccagaag gagttcggcg acgagatgag gaacatcctt gctcgccatc 420 gccgacggac tcggctccaa ccccatccaa atggcgctcg aggacggcga caa 473 <210> SEQ ID NO 214 <211> LENGTH: 593 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 214 cggcacgaga cgacggtgag gtcgttcgtg aacgacgagg cgcagttcca gaagagcgtg 60 gaggaggcgt tcgcggcgct ggacctgaac ggcgacggcg tcctgtcgcg gtcggagctc 120 cggcgcggct tcgagtcgat gcggctgatc gagaccgact tcggcgtgga cgtggcgacg 180 ccgccggagg agctgacgaa gctgtacgac tcgatcttcg ccaagttcga ctgcgatggc 240 agcgggacgg tggaccagaa ggagtttggc gacgaaatga agagcatcat gctcgccatc 300 gccgacggcc tcggctccaa ccccatccag atggcgctcg aggacggcga caagaactcc 360 tcaagcaggc ggcgggatct ctaagcggcc aagattacca gcgccaatgc taattgatgc 420 ttgttacaat aacccatatg tttctctctt tctttctttc tttcttgttt tagcttttct 480 gggatcaatt taatttgctt tttttttttt cccattatgt tttggattat ggggatcgtt 540 ttctactttt gccttactcc ctcgttgttt atccagattt ctattttgtt ttt 593 <210> SEQ ID NO 215 <211> LENGTH: 534 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 215 ctcgccggag ctcattcatc cctcgtttct ccggcaattc tctcttcgaa actttcttac 60 gaacgccgat ctcgccgtta aaatgacaac ttcaaggagg cttgcagaca ggaaggtaga 120 gaagtttgag aagaatatca acaaacgtgg agctgtcgcc gagtcgagca ccaagaaggg 180 aagcaactta gctgttggtc cagtcttgat cggtttcttc atttttgtcg tcattggatc 240 atccctattc cagataatca ggacggcaac aagtggaggg atggcttaac tgcctgtcat 300 gtgcaatacg gctgatctta atcttaatgc gtcttctccg ttgatggtct atgatcttaa 360 tcttaatgcg tcttctccgt tgatggtcta tgtctctgta tgcggaaact tttgtacctt 420 tttgtgcaac tttgttttga aaaactccta aaaaaacata gcacaagtcc tgttgtaaac 480 cttgtgatgt ggtttgttcc tctcactatt tggcctcccc aaaaaaaaaa aaaa 534 <210> SEQ ID NO 216 <211> LENGTH: 580 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 216 cgaaaatggc gtgcaggatt gctctaagaa acgtaatctt aaccgagcta cggctgcctc 60 taccctccat taatcacaat ttctgcagtt ttagacccat taagactatc tctacatcca 120 atttaagctg cggttgcaaa atttcactaa attctaaggg ctaccagttt tcgagatatt 180 gctccaacaa aggggattca tcttcatcca ccgatgattc cgaccaagcc ccgcctcaag 240 aagccgtttt gaaggccatt tcagaagttt caaaggctga aggaagggtg ggacaaacga 300 ctaatgtggt aataggaggt acggttaccg atgattcaac caacgagtgg ctttctcttg 360 atcagaaagt gaactcttat ccaacagtta gaaggttcac agcgaatgga actggaagtt 420 acgattttgt gcaaccatgg ttgttgctgt tgaatcagta cttccaatgc ccatccctga 480 aggtcaattg aaacaaaagg ttcttctggt ggcaaatatg tttccgtaaa catcgggccg 540 tgcaattttt tcccttgagc aggttcaacc gtttcaatgc 580 <210> SEQ ID NO 217 <211> LENGTH: 633 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 217 attgttcagt tcatacttca tccttcgaca taagaattct ttcgtagatc atgagttatt 60 acaatcagaa tcaaccccca gtcggcgtgc cgccgcctca aggttacccg ccggagggct 120 acccgaagga tgcgtacccg ccgcagggct acccgccgca gggatacccc caagacggct 180 accctcccca gggatatccg ccgcagtacg ccccccagta cggccagccg ccgccgcagc 240 aacagaagca atccagtggt cccgggatga tggaaggatg tttggctgct ctctgctgct 300 gttgtctcct ggatgcatgc ttctgagcga tgaagatgtg aagaggggat ttgctttgac 360 aaaggggaaa ggattggagg ccttctgatt ttagcttcga attcttatac caaaacaatt 420 tatgttatct acatcttcgt tttcttcctc ccttgaaata atttctggac ttaacttcga 480 tttgtgagta atgaattttt tttccttctt cttaaaaaaa aaaaaaaaaa aaactccagg 540 ggggggccgg tacccaattc ccctatagtg aattcgtata acaattccat gggccgtcct 600 ttttacaacg tcctgactgg ggaaaacccc ggc 633 <210> SEQ ID NO 218 <211> LENGTH: 575 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 218 ttcatacttc atccttcgac ataagaattc tttcgtagat catgagttat tacaatcaga 60 atcaaccccc agtcggcgtg ccgccgcctc aaggttaccc gccggagggc tacccgaagg 120 atgcgtaccc gccgcagggc tacccgccgc agggataccc ccaagacggc taccctcccc 180 aggggatatc cgccgcagta cgccccccag tacggccagc cgccgccgca gcaacagaag 240 caatccagtg gtcccgggat gatggaagga tgtttggctg ctctctgctg ctgttgtctc 300 ctggatgcat gcttctgagc gatgaagatg ttaagaaggg atttgctttg acaaagggga 360 aaagattgga agccttctga ttttagcttc caattcttat accaaaacaa tttattgtta 420 tctacatctt tgttttcttc ctcccttgaa ataatttctg gacttaactt ccattgttga 480 attatgaatt tttttccctc ctcctaattg ccgttgttaa ttccaattta tggagacttg 540 tcttttgttc ttaaacatat atcccctttc ttgcc 575 <210> SEQ ID NO 219 <211> LENGTH: 599 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 219 ccacgtacgt tgtaattttt atatacatac tcatggacac tgcgccgtca cggacgatcg 60 aggtcaccgt tatctcggcc gagggtttgc tcgtcagtag aaaacagccc gttaagaaca 120 ccgtctacgt cacggtcaga accgcccagt ttgtctccgc ttcgaccggc gtcgacccgg 180 agggccggag ctgccccgtg tggaaccaga agctgccgat ggagctgccc gcgcatgcgc 240 gttttataac ggtggaagcg tgctcgggca ggagggtcat cgcggcggcg aatatcccgg 300 tgacggattt cgccggcggc catctgcccg atggttattt gagtttcgtc agttacaggc 360 ttagggatgc cagcggggag aagaatggga ttgttaatct ctcggtgaag gtgaaaggag 420 gcgggaatgg cggctgcgcc gccagctgct ctcggccatg gatgggaatt gcggcgcgga 480 aggcaaggtt tccggtggtg tggttacggg tattcccgtt tcctatactt attgaacttt 540 aggttttttt ttttttttgc ttaatttttt taaaattatt ttccttttcc ccaaaaaaa 599 <210> SEQ ID NO 220 <211> LENGTH: 461 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 220 ctccttttgc ctctgatgtt tcctctcatt tttctgccgt atcttttctc ttttgtcatt 60 gtcagcacca ggtaccaagt cttgccttga tgtgggttgg gatgacttat ctttatggtc 120 ttctgactca ccagaccagc tgccattatt agaaacagag tcatactcga cactagtccc 180 aaatgtattc ccattctgat catccgtatc gtctatgtta cgaaaacggc cattgacatg 240 aagtggactg acagaaagca ctggtggagt ctcgaatgta tggaatgttc cccacagagg 300 attgtaacca cttgatggga cgccggcgct ggtgttgaca tgtcctaaag gctttgaaga 360 acctttggag gttccttgcc cgcccttttg tctttggatt tagatctgga tgcaggaaac 420 atggctcact tccaacttta atatagctgc cacccgaagg g 461 <210> SEQ ID NO 221 <211> LENGTH: 298 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 221 ggagatcgag gggttgctcg atgataatgg cacgattgca gagatttatg gcgagatcgt 60 gcctaataaa gttgatgagg agatgttttg gtgtaggtac ttttacaggg ttgataaggt 120 tgtgagggca gaggaggcaa gattgaagat ggtgaaaagg gcgatttcgg gtgaggaaga 180 ggaggaattg agttgggatt tcgatgatga tgatgatgtt gatcgtgatg atggtgagcg 240 taggtttaaa gatgagtcga agaaggaaga tgaggaagag aggggaaagg gagtggaa 298 <210> SEQ ID NO 222 <211> LENGTH: 639 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 222 gtattatgca gcttgctttt ccaaatgcaa tataccttgt tgatgccatt gagggtggag 60 aagcacttgt gaaagcctgt aagcctgcac ttgagtctac ttacatcaca aaagttatcc 120 acgattgcaa acgagatagt gaggcattat acttccagtt tggcattaag ttgcataatg 180 ttgtggacac ccagattgca tattctttga ttaaggagca agaagggcag aaaagagtgc 240 cagatgatta catatcattt gttggcctgc ttgcggaccc acaatttggg ggcatctcat 300 atgttgagaa ggaagaagtt cgagttctct tgaggcagga tcccaacttc tggacatatc 360 gaccattgtc tgaactaatg gtccgagcag ctgcagatga tgttcgcttt cttctgttta 420 tctatcacaa gatggtggag aagttaaatg aaagatcctt gtggtatctt gctgtttcgt 480 ggtgcacttt actgccgctg cttctgcatc aatgataata attttgcaga ttggccagca 540 ctgccttctg ttccagaatc tctgaattgc tgacaaggaa ctcgaaaaaa aaaacccgtt 600 ctgttcttga tttccccccg gaaagatggg atgcctaat 639 <210> SEQ ID NO 223 <211> LENGTH: 663 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 223 gagacataga gccactggat gtgagcctta ttcagaagga tgtttcgaat accactatag 60 atgctatgaa gaggactata tctggcatgt tgggtttact gccatcggac caatttcaag 120 tgatgattga tgccttgtgg gaatctcttt ccaagctctt gatatcttcg atgatgactg 180 ggtacacttt gcgaaatgct gaatataggc tcagtcttga gaggaatctc gagatatatg 240 aaggaaatac ctataacttg aaaaatggag attcaaaacg tgatgctgag acgcatctga 300 atgaagaggg cttcacccaa gagagcttgt cttcatctaa tgagtctgaa gagtcaacat 360 ggaacataca aggttttggt gaaatgactc cagaagctcg aagatacatt ttgacattgc 420 attcacgtat atctttagtc caaaaggagc ttcatgaggt caagaagaaa agtgcagctc 480 ttcagatgca acagtttgtt ggagaagaaa aaaacgattt gttggattat ctaagatcct 540 tgcaacctga gaaggtacta gagctatcag aaccgacatc agctgagttg aaagagacat 600 ccattcagta gtacatggtc tgttggctac actctctccg aagatcatct aaatccccga 660 tcc 663 <210> SEQ ID NO 224 <211> LENGTH: 602 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 224 caggaatagc tagttttgta gagagagaaa atgttgagac agattctgag tacgatcact 60 ggattacgtg gagataacgg tttcggatgg gcttcgacgg ctgaagaggt gactcgaggg 120 attgatgcta ctaatctcac cgccattgtt actggtggtt caggtggaat cgggctggag 180 acggcgaggg ttctggcatt aagaaacgca cgtgttataa tagcagcaag aaacatggat 240 tctgcaaatg aagcgaagca gcttatactc gaaagcaaca aaaccgcacg tgtccatgtc 300 cttaaactag acttggcttc cttcaaatcg gtcaaggcct tcgccgacag cttcatctcc 360 ctcgatcttc ctctcaacat cctcataaac aatgccggaa tcatgttctg tccttatcag 420 ctttctcaag atgggattga gatccagttt gctacgaatt atcttggtca cttctacttg 480 acaaaccttc ttcttgagaa gatgaaagaa acggcgaagg cgacgggaat cgagggcagg 540 atcgtaaatt tgtctcgata gctcatatcc atacttaccc ggaggttcag atccaaacct 600 ta 602 <210> SEQ ID NO 225 <211> LENGTH: 525 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 225 ctcgtcttct tcaccttcaa caacagctgc gtaaaccgcc atcggcaatg gaagccgcgg 60 ctcttttcag agccgttaaa cccttcaatt tcaagctcct aaaacccacc tccctccgat 120 tctcctccgt ctcgtcatct cccaccgttc acagaggaaa actggagaag gcgtacgacg 180 gattgttgtt ggacgccggc ggcacattgc tgcaactggc gaagccggtt gaagaaattt 240 actccgccat cggcagaaaa tatggtgtgg agaccactgc atttgatata aagcaaggtt 300 tcaaaagagc tttctctgcc ccatggcctc acaaacttcg ataccagggt gatggaaagc 360 cattttggaa acttgtggtg tctgaagcta ctggctgcga caatcttgat tactttgaag 420 aagtttacga gtactatgcc aaaggcgatg catggaagct tccggaagga gctcacgaga 480 caatgctgtg tctgaaagat tccggagtta aactcgctgt cgtct 525 <210> SEQ ID NO 226 <211> LENGTH: 620 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(620) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 226 gtttttgaag catatgtctt cagctgcaag tacccatctc gctaattcgg catccattat 60 gggaaaattc ttgcatcccc acattactgg gtcatccaac ctgaaccaga aacaattaat 120 taaaactcag tcacgatttc cagtacattt agtcagaaca agcaaacgaa taactattac 180 cgagcaataa gaatagtcaa ttgcatacat ccattatttc ccaatgaagg gaaataatat 240 acacacaaag atatataatc cgattcatgg gaaaacccct gtaaattatt catcgtcctc 300 caagtaacta tcattgaatc cggtttttgc ctagatcatt caaacgaagc aatgcagatg 360 gtacatgatt ttgggcaagt caatgttaag caaaacagta atccattttc atctctcgat 420 cactaaatta gccagattta accaacactt ccagcataag aatcagcaca aaaattacca 480 ttttcctgaa aaggtgactg acgttggaca tgtgatttgc tgacggtgat naaaggaacg 540 ccggggcggg cggtgcctga caaagcggaa gaagggtttc caaggttgta aacagttgtg 600 ggtgttgaac aaattgggcc 620 <210> SEQ ID NO 227 <211> LENGTH: 246 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 227 cttgactaag aaggatcctg ccgaggcaaa agctgtgctt gatagtatga tcgagaatgg 60 ccatcttcca gattcctctc tatatagatc agtgatggag agcttgtttg aagacgggcg 120 agttcagact gcgagcagag tgatgaagat catgttggag aagggagtga ccgagcatca 180 agacatgatt ttcaagattc tcgaagcttt gttcgtgagg ggtcatgtgg aggaagccct 240 aggaag 246 <210> SEQ ID NO 228 <211> LENGTH: 626 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 228 agggagtgaa acatttttca ctttcttaga ttctgtgaaa gagtgttatg aggccttggt 60 tatggcaaag tttttgagtt tattgtacac ttacttgaat atatccatca gcaaaaacat 120 agtacctgat gaaattaaag gaagagaaat tcatcactca ttcccgatga cccttttcca 180 gcctcatact gtccgtttgg accacaaaaa tctgaaactt ctcaaggatt ggacgttgca 240 gtttgttgtg attcgccctg tttgctctgt tcttatgata gcgtttcagc ttctcgatat 300 atatcctagc tggctgagtt ggacattcac catgattctg aatgtctcag tttcactggc 360 cctttactct cttgttgtgt tctaccacgt ttttgcaaag gagttggcac ctcacaaacc 420 tcttgccaaa ttcttgtgtg tcaaaggaat cgtcttcttc tgtttctggc agggaattgt 480 gcttaatatt atggttgcac tgggtatcat aaaatcgaac cacttctggc tggataccga 540 gcatcttcag ggagctcttc agaacacctg gtgatcgttg aaatggtttc ctccccctcc 600 tcatgcaata tgcatatact gctgaa 626 <210> SEQ ID NO 229 <211> LENGTH: 537 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 229 cagacgtggg ccttggttat atagggcagt acagtatgaa agtgagatgg atgcttctcg 60 ggtatgttgg ggagtccgat caagggcttc tagaattttc caaagggtgc ccgagtctcc 120 agaagcttga aatgagaggg tgttgtttta gtgagagagc actagctaca gcttctcttc 180 agttgtccgc ccttcgatat ttgtgggtgc aaggatatgc tgcatctgga gatggtcgag 240 atcttttagc aatggccaga ccaaattgga atatcgagtt gataccagct acaaggcata 300 ttgttcatga tgcagaagag gcaacgatta gtgatcgttg aagaccctgc gcatattctt 360 gcttattatt ctcttgctgg gcaaaggaat tgatttccct agtactgtta ttcctctgga 420 tcctatgctt tcggcaattc ctaactgtga tgaaacaggc catggctggg gataatttcc 480 ggaacttact gtaagtttta aatattgaag aattcctgtc cattttcgaa ttgtttt 537 <210> SEQ ID NO 230 <211> LENGTH: 489 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 230 ctcgtgccga tgagattaat cagaaccacg agtcgaaaat cccggataat ttgagtagaa 60 atgttggcct aattagggaa ctcaacaaca atataaggag agttgttgat ctctattctg 120 atctctccac ctcattcact aaatcaatgg atggttcgtc cgaaggcgac tcgagcgggg 180 gtttcaagtc cgatggaaaa gggcacaaga ggcatcagcc cgggtaaggc tttctcgggt 240 tcttgattct tgttgctctt gaaagggaat ggagaaaaag aagaaaaaaa agaagaagag 300 gaacgatgtt tagtttttgt gtaagtttgt agctcaaatc tctcaccact agtttatatt 360 gattgcatcc taaattgctt acctatagaa aaataatagt ggcactaaat catctattat 420 tagtcttgct tttgtaactt tttatgtact tgttctgatc taattgaatc aagaattatg 480 tggagtgaa 489 <210> SEQ ID NO 231 <211> LENGTH: 529 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 231 aacaggggtc tgaaattcca tcaatgcccc ctgcttgtaa agttccagac aattgtatta 60 tcgacaccga aatgaaagct gcatctgctt gtaatgatga tgtttctgca gcggttgttg 120 agaacactgg tgctccagtt tctgatgctg tcgatgataa cttgaacaat ggtgctgaaa 180 tcgggaagat tgtaggagga aaaaatgaat cgagaatgcg ttacttagat gtagacatat 240 caagacttct tgaggagcgt agcagagcca gagagctgct aaagagttgt cgtcctccta 300 tttcacaggc atcaagacgt caaaaattca aagagagctt acaaaaagga ttaatagatt 360 gcaaagatgt ggacgtttca tttgagaatt ttccctatta tctaagtgaa accaccaagg 420 atgtccttat tgcttcatca ttcatacatt tgaagtgtaa gaaatataaa aaatttactt 480 caaatctccc tacagtgtgc ccaagaattc tattatcagg tcctggagg 529 <210> SEQ ID NO 232 <211> LENGTH: 410 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 232 aagaatcgaa acgaagggca tgcaagtgac ctctctcaaa gaggaatggg aaattgttgg 60 agacaatgac caagattgcc aagaggagaa agaacctttt gtgggttcga tcaaccttgc 120 tcgatcgagc ggtgacaaat ctgtgcagga ggaagctcat gctactgtta caattcagtc 180 agaaaaggat ggtaagaagc gtgtagagct gaatgctgtg tctatctcag ctagtgcata 240 aatataacat atatctcttg tgagttatca ctatttgtaa ataaagcttg tcacgagcta 300 tggtgtcata ttttaacatt tttatgtaaa tattgtatat attgctactt gacaagaatt 360 gtatgttgat gttacaagat cttttgccta aaaaaaaaaa aaaaaaaaaa 410 <210> SEQ ID NO 233 <211> LENGTH: 531 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(531) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 233 ccgagtacag gaactataac cgtggtagtt atggaagtgg gggccagtca aagcaatatc 60 agccacctct gctccctcca cgggagactg acattttcat ggaagctgga aaaatggccg 120 ctgagtattt ggtttctaaa ggcatgttgc caccaaatgc actttcaggc aagtggcaga 180 gcgatgtgtc naagaacagg ttggaattca gggagttagg tctattgaag cagaaagagt 240 gcagagttct atggatacac gtgtatcagc tcattctcgt ttaggaaatg ctgctccgga 300 tataggtcca gctaggagaa agtattctga tgaatataat tctatcggtt ctagaagttc 360 tattagagga aggaagagaa gtgcttcctt caaaaattat gggttggagg ttantacgga 420 attgggaaca agtggatcat tgacggagaa aaaaactttc caccgtgccc agaccaaaat 480 gatgcctctg ttggactcat ggtgtgcagc tcccggaaaa ataagtgcac a 531 <210> SEQ ID NO 234 <211> LENGTH: 459 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 234 ctcctcctct cgcgaaataa acccggttcg ccaacccggt tcggatcgcc gctgcctttc 60 ctcttctaca attccgttgc cggtaattat ccagagctgg acgtcgtcgt accgatgacg 120 tcgggcacga ggctgccgac atggaaggag cgggagaaca acaagcggag ggagcggcgc 180 cgccgcgcga tcgccgcgaa gatcttctcc ggcctgagga tgtacggcaa ctacaagctc 240 cccaagcact gcgacaacaa cgaagtgctc aaggctctct gcaatgaagc tggctgggtc 300 atccaagaag acggcaccac ttacagaaag ggatgcaagc ctgtggaacg tatggatatc 360 ataggctcgg caacagtcag tgcttgcacg tcatatcaac caagccctgg agcctctttt 420 aacccaagtc ctgcatcttc ttcttttgct agcccttcc 459 <210> SEQ ID NO 235 <211> LENGTH: 492 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 235 cacaaattca gattcgaata acaagacatt atccgagaac gaaagatcga aaaatggctg 60 accagaaaaa gcaattcgct aaagtcaacc aattgcgccc tttggatgcc ggacttaatc 120 taacggtgaa ggttatcgat gccaagatgg tagcacagag aggtcggaat caagctcgat 180 tttccgagtg cttggtggga gacgagacag gaattatcat tttctctgcg agaaacgaac 240 aggtggatat ggcaaaagag ggtagcaccc tagtcctctc gaatgcgaga atcgacatgt 300 tcaaagggtc gatgaagctg gtagtggacc gcagcggccg tgtctaaatc cgggaggccg 360 ccgggttctc ggtggacgag agcaacaact tgtccttgat cgaattccaa aggatcgacg 420 tcctcctttg aactgttagg gggctaaatc tttcatttct tgttagagaa cttgtgtttc 480 catttttgcc tt 492 <210> SEQ ID NO 236 <211> LENGTH: 469 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 236 caggagaatc atggggcctg aatgtgatga ggaggagaac aacgacaaga gatggccgcc 60 atggctgaag tcgttgttga aagagaattt cttcgtacac tgcaaattgc acgcggattc 120 tcacaagggc gaatgcaata tgtactgctt ggactgtatg aatggccctc tctgttccct 180 ctgtttgccc ttccacaagg accaccgccc tattcagata aggaggtcat cgtaccatga 240 cgttatcaga gtatcggaaa tacaaaagta tttggacatt agctctgtgc aaacctacgt 300 tatcaacagc gctaaggtat tcttcttgaa cgagcgtcct cagcctcgcc cgggggaaag 360 gggtccccaa cacctgccac gtctgctacc gcacccttct cgactccctc aaatactgct 420 ctcttggatg caagattgtt tggggacttc caaatccccc aaaaaaacc 469 <210> SEQ ID NO 237 <211> LENGTH: 427 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 237 ccctctcttc tgtgcattat aatgaaattt attaaatctt cagattatat acgattagtt 60 aatagtttcg acctcgagtt actaactctc tcttccgttt gctgcagatt ccggcatcgc 120 gatggcgacg atggccgctg ctcgttgctg ttgttcgctc actttggagt atcgcctcta 180 ttgccctcag ggctttggcc tcgacgatgg cgtcgacttc gagggaagag ttccctcatt 240 cggttgctgg agttatgcta atttttgttg ctggaaacta acaccttaaa ggggctgttt 300 ttcattctct ttttagaatg tagagtttga ctatatatgt actttgaaat ttttgtttta 360 tctattgtaa taagagattt gctgagattg ggattccccc ttttttttct actcgtagag 420 actcgtt 427 <210> SEQ ID NO 238 <211> LENGTH: 631 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 238 ataaaacaag gggaaattgt aaggaacttt atgaagaaca gtgctagtca gttgactgta 60 tatggcctat tttgcttaca agatcaagtt aaggaacggg agctttgtgt ttttttcaga 120 aataaccatt tcaacactat gtttaagtat gaaggtgaat tgtacatttt agcaaccgac 180 caaggttatt taaatcagcc agacttggta tgggaaaagc taaatgaggt gaatggtgat 240 actgtttata tgatggggaa ttttaagcca ttcaagatgg acgaccagtc cagcagcaca 300 tgggatgcac agaacgctat ggccagtact gcagtatgta gtttgtatat gttctaaagc 360 tttgggtgtt attcatacct taaattaaat ctcttctttt gcaggactac ctagctagta 420 ttgatagttc agaaccaaat acaagtttca attctgaatt tgcaactagc aatagctctc 480 caacaacagg aattcgacca gcagcaggaa cagcagcaag aacagaaacg cgaacagcag 540 cggcagcgta actcacagca atcgggcatt actggcaatt cacggctggt tgttggaccc 600 caaaccagct ccgcggaaca gtgggaagta c 631 <210> SEQ ID NO 239 <211> LENGTH: 459 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 239 aaatttttga aataaatcta cgcttcttga aggtgaagtt tggaaataga acaattcctt 60 ctgtcgtgta tcctcgatta atgcaacctc agatgctatg tttcaatttt gattctagta 120 ttgagcgaaa ggttacacct agaggttctg tattatgggg caatcctact ccactagtac 180 caacggacag cataagggaa gaagcactac acctaggaat caacaacaca aaaaccttgt 240 tagaaatgac ccccttcctt attttattgg gctcgggact aaaaaaatgg ttgggacaac 300 aaacatccat ctcgttcgta ctttggatac caatataacc atccgaaggt tgtttgaagt 360 gactaattcc tggaatttgg gaggcgttga aaacaaagaa attgctcgag ctctcatttc 420 tatctagtct tgatgttaag aaaagatctc ttgcaggaa 459 <210> SEQ ID NO 240 <211> LENGTH: 612 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 240 tacaacggaa aataaactaa taaaaaaacc tttcttcttt gataaacctc ttctaactct 60 tcttttcgat tccaatcgat ggaatcgacc acttcgctac ataaaaaata atcaatttga 120 cggggttgtc agaaatgaaa tgtcacaata tttttgtgac atatgtcaaa gtgatggaaa 180 agaaagaata tcttttacat atcctcctgg tttatccatt tttgtggaaa tggtaaaaag 240 acggatatct tcacctcttt tcgaaaaatt ttcatgtaac gaactttaca atccttgggt 300 ttatatcaac aaacaaaaag ggaaaagttt caacaaggga atttcaaaat cgaattaaag 360 ctctagacaa agaagctatt tcttccaatg tactgggaaa caagaactcc attgtgtaat 420 gacaattcta caaaagaata cttatcaaaa gtatatgatc ctttcctgaa cggatcatat 480 cggaaaacaa tctacaaaaa cctttcccct tcaaccttaa aaaaagcttt gatagaaaat 540 atcatccata aattttgaaa taaatcggat tcatagtata ctcctccaga tgttcattat 600 ccggaaattg aa 612 <210> SEQ ID NO 241 <211> LENGTH: 616 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 241 gggacgatta agtggaatgg cgcgtgtttc tccgagaacg aggcgaagat tgagtttacc 60 gccaccggcg ataggggaat cggaggcggc gtcatccacc tctcgactgc atctgcccat 120 agctggtcgt gtatggattt gtacgtattt gcgactcctt acagggtcac ttgggattac 180 tactttacag ctcgagacca tacactcgaa tttgaatcgt gggaggaacc cgctgaagta 240 gaatatgtaa agcagcatgg gatctcagtt tttcttatgc cttcaggaat gctcggcacg 300 tttctttcct tggttgacgt cttgccatta ttttccaaca ccggatgggg tcagagtgct 360 aatttagctt tcctggaaaa acacatgggt gcaacattta aaaagcgtca tcaaccatcg 420 cgtgccacca tcgatccaga agattgcatt ctggtgactt cttaacttgt ttcgaagatt 480 cgtggacctg gggtggtttt gagacctgga gaattgggtc actggtgcat ttgctggaca 540 tacagctgtt tgcttgaagg aggaattccg gtaatctttg gggttggtga atctggacat 600 gaaaatgaaa aaggga 616 <210> SEQ ID NO 242 <211> LENGTH: 622 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 242 gtctcgcatt cacacatccg atctactgtc gtctcatctt aatccttcaa ggtggtaggg 60 agaatatgtc gggagctgag gaagtcaaag aacaaacaga agttgtaatg gaggatgcag 120 acaaggccat gccatcacct cagcaagaag aggaatccgt aaagaagaaa tatggtggat 180 taatgcccaa gaagcaacca ttgatttcta aggatcacga acgtgcctat tttgactctg 240 ctgattgggc tttgggaaag caaggtggac agaaacccaa aggaccactc gaggcactcc 300 ggcccaagct gcagccaact caacagcaaa cacgttatcg caagtctcct tgtgcaccat 360 cagatggcga agatggaagc actgcccaag gtgaagatgc gacgactaac aacgaataag 420 aagcaaccga tcgatcctgg gaaaattgtc ggacattgtt gatatcgaag ctcccctaaa 480 taaaagggtg caggggaaaa tgtttttagt gcctccatta gggaaagatg ccccccttga 540 tgagaggtct cccaacttat tcctgttgtt gactaatttc ctgcttttcc aatcactata 600 taattccaaa ttttaccttt tc 622 <210> SEQ ID NO 243 <211> LENGTH: 456 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 243 cactgttccc cctcgcctcg tgaatactgg gaatacgttg cacggcggag ccacggcggc 60 gcttgtggac atcgttgggt cggccgtcat tttcaccatg ggggctccaa ccaccggtgt 120 ctcggttgag atcaatgtgt catatttgaa cggcgctagt gttggggaag aagttgatat 180 cgaatccaag gcattacgcg tggggaaggc acttgctgtt gtgagtgtgg atttgagaag 240 caagaagact gggaaactta tagctcaggg gcgccacaca aagtatctgg ctctccctag 300 taaaatatga aacatagtcc cttgcttgat gcatgagcta ctctaaacga atgtattatc 360 tctgtcgagc tacttagtat acgacaacta ataatgtaaa cattgaaaac cttcaatttg 420 tagagtgaat gcattgtatg atcaagatcc atgatt 456 <210> SEQ ID NO 244 <211> LENGTH: 625 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 244 acaagatcag ctagagatca agtttaggtt aactgatggc tcggatatcg ggccgagaaa 60 ctttcctgtg gctacaagca ttgctacctt gaaggaaagt atcatggctc aatggcctcg 120 agagaaggaa gatggaccgc atacagtaaa agacatcaaa ttaataagtg caggaagaat 180 actagagaac aacagaaccg tgggggagtg taggagcccg ttgtgtgata tcacaaccat 240 gcatgtcgtc gttcaacaac atctggaaaa tgaaacaaaa tccgcatacg atgcgaagca 300 gaacaaatgc atttgtgtga tattatgaaa tgcagattga taaagtctta gctccattcc 360 atctacttga aattggggta agttggaaga aaattacacg aagctttggt agtcggtgta 420 gtctctaaga actacatttg cttcttcacg tcgtatgttt ggcctagcta gatatagagt 480 aatcggatgc aaatctatac agcgtataaa taattatttt gaagatttaa gtatgatttg 540 agattggttg ttgatgtatt ccagtccaat cgagtcgaaa caaacaatct cttcccgggt 600 aataattaag aaagatttgg accca 625 <210> SEQ ID NO 245 <211> LENGTH: 579 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 245 aagttctccc gccacgagct gaagggatgc atcaacgacg ctaagtgcat gaaatatctt 60 ctgatcaata agttccggtt tccagaatct tcgatcctca tgcttactga agaagaaact 120 gatccgtaca gaatcccaac aaagcataac atgcgaatgg cgctcttttg gctcttacag 180 ggatgccaag cgggagattc tttggtgttt cattattctg gccatggttc tcgacaaagg 240 aactacaatg gagatgaagt tgatggatat gatgagacct tgtgtccact tgattttgaa 300 actcagggta tgattgttga tgatgaaatt aatgcatcta tagtccggcc tgtacctcgt 360 ggtgctaagc ttcatgccat cattgatgct tgtcatagtg gaacagttct tgatttacca 420 tatctctgca ggatgagcag gagcgggcaa tatgtatggg aggaccatcg tccaccatct 480 ggtgtgtgga aaggatcaag cggtggggaa tctattcctt cagtggctgt gatgatgatc 540 aaacttctgc tgatacatct gctttatcaa aatcacttc 579 <210> SEQ ID NO 246 <211> LENGTH: 389 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 246 gcaagtatgg cacaactaac ctcatcattc acagctttct tcctcctcct aaccttttca 60 tgcttcgtct cccactgctt aagccgcccc attagtgtca actccgcctc cgatcctcct 120 aaggctgccg tggataagga cggaaaattc gggggggagt tgtggttcga ccacccctgg 180 tttcctgctc attctccgca tccggcctac tggcacaaga aaccgtggtc atttgctcat 240 tctcccaagt ctgacgacgg tgattacgag tgggaccatt ggaaggattg gccatttgct 300 cattctccca agtctcacga cggttggaag tggtggccga agaacgagga ggttggctgc 360 cgatgtaatt gaggaggcta aggtcgcag 389 <210> SEQ ID NO 247 <211> LENGTH: 604 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(604) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 247 gaaaaatggg ctgcttaagt tatgcttcta aagtgttcaa cggtatgtct gtgaagaagg 60 tgtgtgcttg gaatgctatg atatgttcac tggctttaaa tggaagtgaa agtcaggctc 120 tagagatgtt tgagaagatg aagagcttgg cattgtgtcc caacgaagtt acgtttgtag 180 gtatcctatc agcttgtgct cgggcaagac tggtggactt gggcatgaaa ttgtttaaag 240 ctatgtctca tgattttgcc attagaccta cgatggagca ttatggatgt gtggtcgatc 300 tcttgggcag agctggcctt ctgaaagagg cttatgaatt tgtgagaagc atgcctttcg 360 aggccgatgc ctctgtctgg ggtgctcttt tgggtgcttg tanggttcat ggggatgttg 420 atttgggaaa caaatgggcc agcggttgct cgagttgcaa cctaatcatt gcggaaggta 480 cgttgtgttg tcaagcattt atgccggggc agagatatgg gaccatgcgg ctgccctgaa 540 gaaagcaatg gtgaatgctg gaattccgaa ggttcagcaa ttaatacggc taactgaata 600 taaa 604 <210> SEQ ID NO 248 <211> LENGTH: 516 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 248 cggaggagga gaaaccatcc aaccgtcgtc accacctcag atctgatcaa gatgcacggc 60 tacgccagcg tcagcaccgg cgacgccgcc ggtctgaagg tcgaagactt tgacatagag 120 tccggcgatc gtctctaccc cggaatcggc cacggcgaga acctcctgcg atggggattc 180 attcgcaaag tgtacggtat tatggcggcg cagatcctcc tcaccaccgc cgtcaccgcc 240 gccaccgttc tctacgcgcc gatcaacgac ctcctgcgcg cgaatcccgg atttctgctt 300 ttcctcatct tcaccccctt catcttattg tggccgctgt acatctatcg tcagaagcat 360 ccattgaatt tggttttcct tgggctcttc actgctttta tgagtctaac tgttggagtg 420 agctgtgttt atactgaagg aagaattgtg ctcgaacctt gatattgacc tcagctgtag 480 ttcagcactg actgggttca ccttctgggc tgctaa 516 <210> SEQ ID NO 249 <211> LENGTH: 609 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 249 ctgggttgat aatgccggta gcatagggat taaagattac agtgctattg aaagatggca 60 atgccaggca gcagcagcta gttccggctt ctctcatggg acaatgcaca taacagatga 120 ggaggattca aacaggagtt ctaagttgca taagtggaaa gatgacgaac cagcaaatga 180 gagttctgcc tctcaagtta cgatgaccaa aggatcgaaa ggcaatcagc ctagaggagc 240 agagcgtata aagcagtcgg ttgtggatta tgtggcttct ttgctcacgc ccctttataa 300 agcaaggaaa atagataggg aaggttacaa gtcaataatg aagaaaacag ctactaaggt 360 tatggagcag actactgatg ctgaaaaagc aatggctgtt tttgaattcc ttgatttcca 420 acgttaaaat aagattcgtg ctttcatgga catgttgatt gaaaggccat gagattaaag 480 ccaggtgcca aattcggatc ttttgaaaaa aaatgaatgg tgcctctgaa cacaggatcg 540 aaaaaggcgc ctgactgttt taatcatggt ccagccatct ttgccgtgtt tggtaaatgg 600 tactgttcc 609 <210> SEQ ID NO 250 <211> LENGTH: 663 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 250 cggcacgagt ctcagctcac tgcagtaaat cccaattcct caaaaatgtc gatggccatt 60 ttcaccccta agctcccaaa tatcgcccca cagtctcatg ccaaaaccca tttagtttcg 120 aggcctaatt atcttcctct caggcccaac aagaagcttc aattccactt gctcatgagc 180 gctgataccg cctctggtgt ggctgctact gctccggagg agactcctgc cagttctaat 240 ggggactctc tgggctcgaa tggctctgca acgccggcgg ctgaggtgga ggcggtggct 300 gtggaacccg tgaacagctt tcaggatgct aggtggattg ggggaacttg ggacttgaag 360 cagtttgaga aagatggcaa gactaactgg gatgccatca ttgatgctga agtgaagagg 420 aggaagtgga tggaagacac ccctcaatca tcaaacaacg aggaacctgt tatcttcgac 480 acttccataa ttccttggtg ggcatggatg aaaaagtttc atcttcctga agccgaactg 540 ctaaatggtc gtgctgctat gattggattc ttcatggcgt tctttgttgg acagcctgac 600 tgggggtagg gttgggttga tcaatgggca cttcttctgc caaaactttg ctgattgttg 660 gca 663 <210> SEQ ID NO 251 <211> LENGTH: 529 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 251 gtattcttca cgaggcttct tcatcttcat ccacccaaag tttggtgatc agaattcaga 60 aacaaggcga gaaatgaacc caagtgaata tactgcagaa gttacaagtt tgtcaccgaa 120 agcgactgag aaggatgtct atgatttttt tgctttctgt ggttcaattg atcgtgttga 180 gattgtcaga gctggtgagc atgcatccac ggcctatgtg acattcaaga actcacatgc 240 tttggaaact gctgtcctgc tcagtggagc tactatcatt gatcaacctg tttgcataac 300 ccgatggggc cattacgaag acgactataa catgtggaac cactcctcct ggaaaattga 360 agaggaaagc agtacaaatg attctcaagc tcctcgatcc gttccttcag cgggggaagc 420 cgtatctcta gctcaagacg tggtcaaaac aatggtgtcc aaaggatacg tgctgggaaa 480 ggacgcattt agcaaggcgc gagccttgga cgaatctcac caagtatca 529 <210> SEQ ID NO 252 <211> LENGTH: 577 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 252 ctcgtgccga attcggcacg agctgacgtg gagaagatcg aggatctgct gctgccggtc 60 acccccggtg ggctccggac ttcgctccgg ttcgccctcg gccggactcc tccgtacatg 120 ccggatttca ttctcaacga tttcattcag aaattgtatt tagaaaacag gaaagagaag 180 ctggagcttt tgaaagagct gactattgga aaggatgaga ctgggattac catatctcct 240 ctttcactgg aagtgctgat tctgtgggga gagaatgacc agatttttca attggagaaa 300 gcagaggaac tcaacaaatt ggtgggagaa aaggcaagat tgcaagtgat aaaaaaggga 360 tcacatgttc ctcaaatgga acatgcagcc caattcaaca ccattgtcaa caatttctta 420 catggattgt cataattaat ctcatgaaga tgaagaattt acctattcat gcattttcca 480 ttataaaatg tgcacaataa taagattatt aattccaata aaaaaaaaaa aaaaaaaact 540 cgaggggggg ccggtaccaa ttcccctata atgagtc 577 <210> SEQ ID NO 253 <211> LENGTH: 527 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 253 cctattttcc catttcacaa atatgactcc catcgttcag aaattttgcg cgttggcgcc 60 gcgatgaagc accgccggat tcatgtgtcg gcggcggagg cggtggtggt tgagcaacct 120 aagctagagg ttggggtgga agtgtttctg ttaaagggga gtaaagtgct gttgggccgc 180 cgcagcaccg ccatcggcta ccgcgacttc gcccttcccg gcggccacat cgagttcggg 240 gaaagctttg aggaatgtgc aagccgagaa gtaaaagaag aaacggggct cgagatcacc 300 ggatgtgaga ttctgacggt catcagccag gcgatttttg aaccggaacc gttccatcta 360 gtccggagtt ttcatgcgcg cggagcttgc ggatccgtct caggagccga tgaatttaga 420 accacaaaag tgcgatggat ggaattggta cgattggaac catcttccga atccattatt 480 agtaacccta gaagaagcaa ttcacaaggt ttaaatcctt tcccccc 527 <210> SEQ ID NO 254 <211> LENGTH: 627 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 254 atatgactga gcagctgtgt tacattcctt gcagctactg caatattatt cttgcggtaa 60 gtgttccatg cagcagcttg tttgatgtag tgacagttag gtgtgggcac tgcgccaatc 120 tttggactgt gaatatggct gctgccttct ctctgcacgc ctcctccttc caagatcttc 180 atcaccatca ccatcagggt cttagctacg ctccatcgga ttacagagtc gacctcggct 240 cctcttccaa atggaactac aggatgccaa tgcagcctcc tagcttcatc aacaaaccag 300 atcagagaat catcaatcgt ccccctgaga agcggcagcg cgttccatct gcatacaatc 360 agttcattaa ggaggaaatt cagagaatca aagccaacaa tcctgatatc agccataggg 420 aagctttcag cactgctgcc aaaaattggg cacactttcc tcatatccat tttgggctca 480 tgctggagac aagaatcaag ataataaact tgaggaggat tctgagaagc atcaaatgag 540 aagggcagcc gttctgaaca aatgatactg cggtcttcat ccatatcaac caaaagcatg 600 acgaaattcc agcttattat tattatc 627 <210> SEQ ID NO 255 <211> LENGTH: 619 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 255 aattgctgta caagtctctt gcaacaaagc ttattgttgg aatgccattt aaggatctgg 60 caactgtgga ctcaatcctt gttagagaac ttcccccaca agatgataaa aatgctagat 120 tggctctcaa aaggctgatt gacattagca tgggagtaat tactccttta tcagagcaac 180 tgacaaagcc actacccaat gcattggccc ttgtaactct caaggaatta tcatctggtg 240 ctcaccagct tcttccagaa ggtacacgta tggtagtctc attacgtggt gatgaacccg 300 aagaagagtt ggaaattctc aagacgactg atgctaccat gatcctacat cacgttccat 360 attcagatga gaaaaccagc agagttcatg ctgcaagaaa ggcttttcga gtatctttca 420 gagaactctt tgaatttccc agtcattcat catatagagt ttccaaaagg aattccagaa 480 acaattggtt atcggtgccg ggacaaactc aggacccttc tcgttaatgg actaggcgac 540 ggtatcctat tggaagcccc ccatcaagat ttgaattcct agaaccttct ttcactttac 600 tacgggctgc gaatgagaa 619 <210> SEQ ID NO 256 <211> LENGTH: 485 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 256 ctcgtgccgt tggattagta ttcttgcttt gctggcctat gttcagttct ggtcgccttg 60 gagccattgc agcatctctg attcctgcca tgaatgtcat taacatgctt cttttgggac 120 ttgggatatg gaaggatgag gcgactgtca agtccatgac taggaacgga gacattaagg 180 agctacttaa ggggccattg tactatgctt ctgcaatcac tctcttcact gcaatttact 240 ggagaacgtc tcctatcgcg attgcagcac tctgcaacgt gtgtgctggt gacggtgtgg 300 ctgatatttt cgggaggcga tttggccgcc agaagctccc ttacaacaga aacaaatcat 360 ttgccggtag tattgccatg gcgtgtgccg gtttcgtctc ttccgttgga tacatggtct 420 acttttcgtg tttgggctac attgaagaaa ttgggaagtg gttagagggt ttttggtact 480 gtcca 485 <210> SEQ ID NO 257 <211> LENGTH: 415 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(415) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 257 cgattttggt tacgttggtg gtgccccagg aaagatcgac ctttatgttg gcaagacggt 60 ggtgaaacga gcaatcgcaa tggagaatgc tacggatgcc ctaatcgagc tgataaagga 120 gcatggaagg tgggtggacc ctccagtcga agagtagaga tgcagataat ctgctgctca 180 aagaaagcta gcgatggcga ctggtgagtg agggaattgc agttactagt gaatgagaga 240 atatgatgag gatatatatt atatagtatt tgttgttgat tttttgttca attgataatg 300 gagtttcttt accagttgtt gaaagaagct cctcatacca taccatttgt ntgactacag 360 aataaaatga atgaaagctc atcaatcgtc tgtagctaaa aaaaaaaaaa aaaaa 415 <210> SEQ ID NO 258 <211> LENGTH: 490 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 258 tctccaacaa tcctcacctt cttcctttct ccagatcaat cttgatggcc tcgatgagta 60 gcagcagcgc gaagaaactg atcaagattg acatcgtctc cgacaccata tgcccatggt 120 gctacgtcgg caagaagaat ttggacaaag ccgttgcttc ctcaagtgac cagtacgatt 180 ttgagatcaa atggcgtccc tatttgatcc accctaatca ccctaaagaa ggcataccta 240 agaaggagta tcactacaaa ctatatagcg ctcgctttcc ttccatggaa gctcgaataa 300 atggggtctt taacagcttg ggattggata attatgacat gaaaggactg attggaaaca 360 cgttggacag ccataggttg atatactttg ccgggacgca cggacaagac aagcagcatc 420 cacttgtcca agagcttaac tatggctact tcatacaggg caagtatata tgcgataggg 480 agtatctgtt 490 <210> SEQ ID NO 259 <211> LENGTH: 601 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 259 aatcgaccct caccactccg caaagcgcat ccagaaagga ttttaatgac ggccaagagg 60 ctgcttctcc gctctaacgt ggcggcgcta tgtctcgccg gaagccgctc atttctccgg 120 cgagcaccgt ccttgacgat tgtgccggcg tccgctacaa actacaacct atcaagcagc 180 cgctcgttac ttagttggag gtttcctcgt tcttcgtcta cttccccaat tactcgggat 240 ttctgcgtcc gagccaccga aaatcccgga cctattgaat ctccgttgat ggaaacgatg 300 gagaagaaga tcaaggaaca tctaagtgca gactcagttg ttgtgaagga ttcttatggt 360 gatggtcgcc atattagcat agatgtgata tcttctgcat tcgaggggca atctgcggtg 420 aatatgcaga ggatggttta caaggcaata tgggaagaac ttcaagaaag agtgcaccag 480 ttgaccagat gactactcag actcccaccg aagcaggagc agctaagtga tgaaccgtgg 540 atcaagattc ttgatctata aggcttcatg gagtttgcca tcactcaacc attgagtcgt 600 a 601 <210> SEQ ID NO 260 <211> LENGTH: 551 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 260 ttccatttca aattccatcc accacgagtt catctctttc tcgactcttc ctttcggctt 60 gattagcctt ctccgttttg tcatttaccg gttgttcgtc gctcactttg ctttgttagc 120 tgagagattt gagtgggtgg aactaggtac ttttgtggag taaaatggcg accggagctg 180 ttcctgcttc ttttactggt ctcaaaagca aggatcatcg tggcttgggg ttcggaaaga 240 gttccgactt tgttagagtt tcaaacttgc aaagggttaa gtttggcaga agcaaggttt 300 cagtaatcaa aaactctagc aaccccagta gagaaactgt tgaacttgaa ccaccatcag 360 agggaagtca actgctagtt cctaggcaga aatattgtga atcaatacac aagactgtcc 420 ggaggaaaac ccgaacagtg atggttggaa atgctgcttt gggtagtgag catccgatca 480 gaattcaaac gatgaacact acagatacaa aggatgttgc tggaatgttg aacaggtttg 540 aaaatacaga t 551 <210> SEQ ID NO 261 <211> LENGTH: 530 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 261 atttgcagtg atccattttc ctttctggta cccctttaaa aagataatat gatttccttg 60 ctggacagtg gaagaatgca catagtcaat tgccggaaaa tatcagggtg gttgagatga 120 gcatgaatga ctcctggctt cgtgacactg gcccgacagt gagccttctg cctgtttgaa 180 ccgtattcta ccctttgtca ctgacattgt atttatgcac tagttatcat tttttggcag 240 tttgttgtga gaaatagtcc atcggataaa gagaagctgg gcaacaaggt tgccggaatt 300 gattggaact tcaatggcta tggtggtaag ttaatatgga cacttcagat ttgctgctta 360 ctctgagaat atgttgtgca cagtagaaac ccatctgaac actaaaatgt ggtatatgtg 420 tggcaattat ttactcgctt gtctatttat gtttggtggt gctttcagtt tcttttgtgc 480 tttaccatat tctaggatgt ttctctcatc atgctttacc ttacctactc 530 <210> SEQ ID NO 262 <211> LENGTH: 385 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 262 ggaaactgga aactcgaaat tggaatacgc acacaagtca atcgatttag ctcttgttcc 60 ttttttaatt tttttctctt tttttttttc catcatcaag cagtagattt catgcataag 120 gcctattgtt ccatacatag aaatttaaaa aggagcaagc gtgtatgcgg aggaagtgga 180 tcgatagatc aacatcaacc gaatttgtat tggattagtc tcgataaagg cgagagatgg 240 gaatttgctg gagttctaaa tcggttgatc aaagccctca gaccacgggt caactcagtt 300 caggcacgca gacgacgacg acgaccagca atacgatgtc gtcctcgagc ggtagcagcg 360 gattctgggc ggcgagcgtg agcca 385 <210> SEQ ID NO 263 <211> LENGTH: 445 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 263 ataaaaggta gggatggctt tgcttgcctt tccatcagtg acaacatcac cggcgccggc 60 gacgtgcagc tggaagacag gtgtgcgagg taagcagctc ctattaaatc gttggtcgtt 120 taggatgaag ggagctggag ctggaagggg gagtgcgttt gaagttaggg cttttttccc 180 caatcccgcc caacaaccca ttctcaagga cgcactcaag gagccggttg cgttcgtggg 240 agggttattt gcggggcttc taaggcttga tctgagcgaa gagccattga gagagtgggt 300 tgcaagaacg gttgaagcct ctgggattag tagggaagaa attagcaaga gggaagggga 360 agaagaagaa gaagaggaag gagtggcgca acagattgag atagaataga atgaatgacg 420 cacattctgt gtctgtgtat gttgg 445 <210> SEQ ID NO 264 <211> LENGTH: 596 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 264 ttcgaacgtt caccgcggga ttcattattt gagtgcgagg gcgacggatg aatatgaatt 60 cgcaaggcag aaggtagcta atttcataaa cgcggcggag tctcgagaga ttgtgtttac 120 aaaaaatgct accgaaggaa tcaatttggt ggcgtatagt tggggtctct cgaatctgaa 180 ggagggagat gaggttatac ttaccatcgc tgaacatcac agtgctattg ttccttggca 240 atttgtagct caaaagactg gtgcagtgct gaagtttgta gatttaacag aagatgaagt 300 cccagacgta gacaagctaa gggagatgat ctcaaagcgg acaaaactca tcgttgttca 360 tcatgtctcc aatgtgttgg cttctgttct tccaattgac caagttatta agctgggctc 420 atgaagttgg accaaagtgc tcgtaaatcc tgtccaagtg tacccatatg gtttgttgat 480 gtaaggacct tgatctgatt tctggttgcc ccccaaaaat gtgtggccac agcttgggtc 540 ttatatggta aagtgaccct tgtcttccat gccccatttt aggtggggcg aaataa 596 <210> SEQ ID NO 265 <211> LENGTH: 637 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 265 cggagaatta atgtcgtaaa agcgtcggca tctggactgt actccgccga gcagctcgat 60 ctgaccgtgg aaaacgtaga caaggttctg gagaacgtcc ggccgtactt gatctccgac 120 ggcgggaacg tccaggttgt atcgattgaa gacggcgtcg tttcgctcag gctccaagga 180 gcatgcgaaa gctgccctag ttcgacgacc accatgaaat tgggaatcga gagagttctc 240 aaggaaaagt ttggagatga aatcaaggat atacgtcaag tgtatgatga gcagatcaat 300 gaaactacag ctgaggcagt gaacagccat ttagacgtac tgagaccggc cattaaaaac 360 tacggtggca gtgtagaagt gctgtccgtt gtgggcgggg actgtgttgt gaagtacgtg 420 ggccccgatt ccataaggat cggggataaa acagccatca aggagagatt ccccgaaatt 480 gtgaatgttg aattcaccac ctaattacag tatttgagtt gaatacatgt tactgctacc 540 ttgtttcata gatgccaata caagttatat gcatatcgat aattgatgag atggattata 600 gttaaaaaaa aaaaaaaaaa accgaagggg ggccggt 637 <210> SEQ ID NO 266 <211> LENGTH: 395 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 266 cctttgttta ttgatttatg taattacttg atatataaaa ttccaatttc atgattatta 60 gtggccatca acatatataa ttacctacct catcccataa attatgactt aacaacccaa 120 acgatttttt ttcccccctt caggggtcaa aattacctat aatctccgtc aaaaattttg 180 gaaataatac cctttttata aaaatgatcc tttttgaata aatggggata caagaaatgg 240 acgtaaatgg atttttatct aatttaaaat gatgctttta ttattaaaat taatttaagg 300 aggggttaat aaaggaaatt ttggacttgg aaaaagggat ttggttccca accggccatg 360 gaaatggaaa acgttgttgc cgtggaagtg aaagc 395 <210> SEQ ID NO 267 <211> LENGTH: 493 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 267 tcgagctttg ggaaggtctt gatcgcacaa gtaaagagta caaggaactc aaagctcaaa 60 gaagtgaggt aatgtggaag gctgtggagc gtgctctagg ccctaatttt gatcgaggca 120 agtgtgaggt taagttagta gggactccat taacacacca aaggtttctt cgaaggaatc 180 gagggacata tggtccagct attaaagccg ggacggcttc ctttcctggc cattcgactc 240 ccatctcagg ccttttatgt tgtggcgatt ctacttttcc aggcatagga gttcctgcag 300 ttgcagccag tggtgccatt gttgctaatt ctcttgtttc agtgtctcaa cactctcaac 360 ttcttgatgc tcttggaata taacaaaaat cacctctatt attattgctg gatattagaa 420 gaaatgtatg tattattaaa taaacaatac tcctatgaga aatgaagaaa taccaagtga 480 gatgagattt aat 493 <210> SEQ ID NO 268 <211> LENGTH: 602 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 268 cgcacgcgcc ttcaaattct tcgatatggc tatggcgagt tccctctgct acgccggccc 60 gctccccatc aagtcctcct caaagcaacc aaccgtacta actcccgggg tgggatcgtg 120 cgcagcgcga aacttgcagc ttccctcatt gaaattcgcg gcgagaccgt cttcctcgcc 180 ggcgccgtcg gtggtggctt tagccgtgag tacggttgga gtagagcctc agtcgggagc 240 tgcggctccg gctaaaattc tgcctttccg cgttggccac ggatttgacc ttcatcggct 300 tgagcctggg tatcccctta ttatcggcgg gatcaatatt cctcatgatc gaggctgcga 360 agctcactcc gacggagatg tattgcttca ttgtgtggtt gatgcaatat tgggggcgct 420 agggctccca gatatagggc agatatttcc cgacaccaat cctaagttgg aaaggcgcag 480 catcttgcgt tttcgtggaa gaagctgttc ggcttatgca tgaagcgggc tacgaacttg 540 gaaatctaga tgccacattg attctccaaa gaacgaaact gaatccacac aaggaaggca 600 ta 602 <210> SEQ ID NO 269 <211> LENGTH: 795 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(795) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 269 aactnggagc tccaccggcg gtggcggccg ctctagaact agtggatccc ccgggctgca 60 ggaattcggc acgagctcgt gccgcctcac cttcttcctt tctccagatt aatcttgatg 120 gcctcgatga gtagcagcag cgcgaagaaa ctgatcaaga ttgacatcgt ctccgacacc 180 atatgcccat ggtgctacgt cggcaagaag aatttggaca aagccgttgc ttcctcaagt 240 gaccagtacg attttgagat caaatggcgt ccctatttga tccaccctaa tcaccctaaa 300 gaaggcatac ctaagaagga gtatcactac aaactatatg gcgctcgctt tccttccatg 360 gaagctcgaa taaatggggt ctttaacagc ttgggattgg ataattatga catgaaagga 420 ctgattggaa acacgttgga cagccatagg ttgatatact ttgccgggac gcaggggcaa 480 gacaagcagc atcaacttgt cgaaganctt agctatggct acttcataca gggcaagtat 540 atnggcgata nggagtatct gttagantct gccaaaaagg ctggantcna aggacagaag 600 aattcttcca gatcccacna tggactgaag gagataaacg aggactttga canattctcn 660 ccaatccatg gagtcctcat tcctaataaa tggtgaacag gaaattacng aagtcnccnc 720 cnganaactt cttgaanttt ttcnanaaac tgcntgattc tgaaattgtt tagaactata 780 aatttgtgag aactn 795 <210> SEQ ID NO 270 <211> LENGTH: 478 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 270 atgcaatatt gggggctcta gggctcccag atatagggca gatatttccg gacaccgatc 60 ctaagtggaa aggcgcagca tcttgtgttt ttgtggagga ggctgttcgg cttatgaatg 120 aggcaggcta cgaacttgga aatctagatg ccacattgat tctccaaaga ccgaaactga 180 gtcctcacaa ggaggccata agggctaatt tatgcaagct tcttggagcg gacccttcgg 240 ctgtgaatct caaggccaag acccatgaga aggtcgatag tcttggggag aatcggagta 300 tagctgcaca tacagttgtt ctccttttta ggaagtgata atacatgctt tggtttatat 360 tggaatgaga acatataaat gtattgattg tatttacatc aatagcttct tgaaataaac 420 tcttcttgta ttttgtacta cactgatgag cagagggaat ctatagtctt gaagtatg 478 <210> SEQ ID NO 271 <211> LENGTH: 644 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 271 ctcgtgccga atcccttact taaaagttaa aagtagcaga aacccccaat tttcatcaat 60 caaaaaatgg cgacgacgaa acagatggag gtggtgaagg gtttggaaat cgaaaagtac 120 atgggaaggt ggtacgagat cgcctccttc ccctcgcggt tccagccgag gagcggcgtc 180 gacactaggg caacctacac tctcaatccc gacggcaccg tccacgtgct gaacgagacg 240 tggaccgacg gaaagagggg tttcatcgaa ggaactgcgt ggaaggtcga ttccaacagc 300 gatgaagcta agctcaaagt caaattctac gttcctcctt tcctgcctat cattcccgtt 360 accggcgatt attgggtgct ctacgttgat cccgattatc agtacgccgt cgttggccag 420 ccgtccagga aatatctatg gattttgagt taggcaatct cccatcgatg aagaaatcta 480 caatcaacta gtggaaaagg ctaaaggaga aggataccat gtgagttaac tgcagaaaac 540 atctcattca gaaactccgc cggaaagcga tgatccgcgc ccaggatact aaaggcattg 600 gtggatcaat cccctttggg aatagaacag gataaattgt ggat 644 <210> SEQ ID NO 272 <211> LENGTH: 630 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 272 tttttttttt ttttttttga cttttaccaa aataattcat tcccaattat ttcttctata 60 gtacaaagca agttacacca ttattcctac ccacaagtag cattaaaata cacactctac 120 agataaaaag gaaaagaaca ccaagcttca acaatgaaat aatgttgagc atattatata 180 aacaactaag ttgaaaattg catcaacatt agatcattta agtcataatt taaacaacgc 240 ttatcaaaat atgtagtctg gcagctgaag gggaaatcga gctacttcaa cagcgaacgg 300 gctacctttt gcatcaacca atcttccagg aacaaaagta aaagagcctt cgacggatcc 360 ttttggagca ggtagagatg tgcaactctc ataaacaaac tctgcctcgc caggatgaag 420 taaaggaaac tttccaatca cagcttcacc atttatgtca gaaacaatag catcattagc 480 acgtataatc cactgtctcc agtacaactg gcaagaacca aaggtcaacc attgatgaca 540 cagccatcag gcgaaagaaa catgcgaatc gaataggcaa acaaaaactt ctctgaatca 600 cttgaaggtg ctaaacccgg cacaatgttt 630 <210> SEQ ID NO 273 <211> LENGTH: 622 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 273 ctctcgcaag ctttcgaact ctctgttttc tcgaaaaaaa aagtataatt ctcttcggta 60 aagcttttaa ttgttgttgt cggcatcaat ggcgggaaag ggcgaaggac cggcgatcgg 120 aatcgacttg ggaacgactt actcgtgcgt cggagtctgg cagcacgacc gtgtcgagat 180 catagccaat gaccaaggca accgcaccac gccgtcgtat gtggcgttca ctgacacaga 240 gcgcctcatc ggggatgcgg cgaagaacca ggttgccatg aatcctgtca acactgtttt 300 tgatgctaag cggctcatcg gtcgtagatt cagtgaccca tcggtccaga gtgatatgaa 360 actctggccg ttcaaggtca ttcctgggcg ccggcgacaa gcctatgatt gttgtaacct 420 acaaaggaga agagaaacag ttctcagccg aagagatctc ctcaatggta ctcaacaaga 480 tgaaggagat tgcagaagca tccttggcac gactgtaaag aatgctgttg tgactgtccg 540 gcttatttca atgactctca gcgtcaggct accaaggatg ctggaattat ttctggcctc 600 cacttttgaa gatcatcaac aa 622 <210> SEQ ID NO 274 <211> LENGTH: 611 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 274 ctcgtgccga attcggcacg agcggcacga gtctaggttt ggaaactgct ggaggagtca 60 tgactatctt gatcccgaga aacactacca ttcccaccaa gaaagagcaa gtcttctcga 120 cctattctga caatcagccg ggagtcctga tccaggttta tgaaggtgaa aggacaagaa 180 caagggacaa caatttactc ggaaagtttg aactctccgg aatcccacct gcacccagag 240 gagtccctca aatcactgtc tgctttgata ttgatgcaaa cggtatcctg aacgtttctg 300 cggaggacaa gaccacggga cagaagaaca agatcacgat caccaatgac aagggaagac 360 tctccaagga tgatatcgag aagatggttc aagaagccga gaagtacaaa tcggaagacg 420 aagagcacaa gaagaaggtg gaagcaaaga acgcgttgga gaactacgcc tacaacatga 480 ggaacaccat caagggatga gaagatcgcc tccaagctgc cagctgctga caagaagaag 540 attgaggatg cgattgaagg gacatccagt ggctcgacgg taaccagcta acggaaggcg 600 acaattttga a 611 <210> SEQ ID NO 275 <211> LENGTH: 145 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 275 ttgaggactg cctgcgagag agcaaagagg acgctttcat ccactgctca gaccaccatt 60 gagattgact ctctgtacga gggtgttgac ttctactcca ccatcactcg tgccagattt 120 gaggaactga acatggactt gttca 145 <210> SEQ ID NO 276 <211> LENGTH: 490 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 276 gaaggttgga gcagatattg tgaagagagc tctgagttat ccattgaaat tgatagccaa 60 gaatgctggt gttaatggaa gtgttgttag tgaaaaggtg ctgtcaagtg ataacccaaa 120 atacggatac aatgcggcaa ctggacagta tgaggatctc atggctgctg gaattatcga 180 cccaactaag gtggtgaggt gttgcctgga gcacgcttct tcagtggcca agacgttctt 240 gatgtctgac tgtgtggtcg tggagatcaa ggaggcggag ccagccggtt gtttgaaacc 300 ccatggacaa ctcagggtac ggttactaag cgagaggtgg aagctccgat gaggtggcaa 360 attaggtcat gagttttgtt caactataat aagcgagaga gagagagagg ttccttgttt 420 gtgacaaaag tatctgtaga ctaaaaaatg tctagtgaga gagatcctcc tgggattgga 480 cctgccattc 490 <210> SEQ ID NO 277 <211> LENGTH: 481 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 277 caggcattca agactgccat tgaagctgct tgcatgcttc tgagaattga cgatatagtg 60 agtggcatca agaagaagca accgggaagc cagggtccat caaaacctac aattgagcaa 120 gaaggcgatg cagacaatga gaatatgatt ccggagtgag aggaagttca gttagctgga 180 tggattgcat cattgatctg taaatgaaat ttatctaatg attctcaatc gaggttggtt 240 ctccgaagaa aaaaaaaaaa agacggcttc tgctgttttg gacggatgca gtatgcatca 300 tcttttaaac ccatcgtgat aatcccctga aagaactcgt gctcattggc tgacatggct 360 gatcaagttt cttctgaaat attgtggatt tttatgtgta cttttatcat gcagtgttca 420 gattttggtg cctgggcacg aattttatcc tcaaatatta gttacttgaa ttaattaaaa 480 a 481 <210> SEQ ID NO 278 <211> LENGTH: 630 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(630) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 278 cgacgacgtt gttgtgctca ccgaagagaa tttcgccaca gaggtcggcc aagaccgcgg 60 tgctctcgtc gagttctatg ctccctggtg tgggcactgt aagaagcttg ctcctgagtt 120 cgaaaagctc ggtgcaagtt tcaagaaggc aaaatccgtt ttgataggaa aggttgattg 180 tgatgaacat aagaccgttt gcagcaagta tggggtttct gggtatccca ccatccagtg 240 gttccctaaa ggttcctcag agccaaaaaa gtatgaaggt gcacggactg ctgaagccct 300 tactgaattc gttaacactg aagcaggtac caatgtcaag attgctgcaa tcccatcaag 360 cgttgtggtt ctgactcctg ataacttcca tgangttgtt cttgatgaga aaaaggatgt 420 gctagttgaa ttctatgcac cctggtgcgg tcattgcaag aaccttgctc ctacatatga 480 aaagcttgca gcagcattta atctggaaga aaaattgtcc tcgctaatgt tgatgctgat 540 gcacacaagg tattggagaa aagtatggtg ttagttggtt ttccaacatt gaaatttctt 600 cccaaaaaca acaagggcgg cgaaaaatat 630 <210> SEQ ID NO 279 <211> LENGTH: 512 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 279 cggcacgagg ttttttcaga tcctagatct aatggccaaa gatccagttc gcgttctcgt 60 cactggcgct gcgggacaaa ttggatatgc tctcgttcct atgattgcta ggggagtaat 120 gttgggcgct gaccagcctg tgatcctcca catgctggat attccacctg ccgcagaggc 180 actaaatggt gttaagatgg aattggtgga tgcagcattt cctcttctta aaggtgttgt 240 tgctacaact gatgccgttg aagcttgtac tggtgttaat attgctgtga tggttggtgg 300 attcccaacg aaagaaggta tggaaaagaa agatgtgatg tccaagaatg tctccatcta 360 caagtcccaa gcttctgctc ttgagaagta tgctgctgct aactgcaagg ttttggtcgt 420 tgctaatcct gccataacca tgccgttgat ctgaaagaat ttgctccccc atccccgaaa 480 aaaaaattaa cttgtttgac taaaattgga cc 512 <210> SEQ ID NO 280 <211> LENGTH: 569 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 280 ggaacatgaa caagaactta cagtcgatat gaagcaattg tccaaggaag gttcatttac 60 tggttcatat ctgtcgtagg tctcgaagaa aatctcgtct acgtctccga gaagatcagt 120 acctagcttc agttcactct caggatgatc ggtttctgct tcggttgata cagatgcaat 180 gaacttccca tttggagcca cattgtggga gtaagagcaa caaaatacat acctacaatt 240 cccaaatcat aagacgatat tttcagatgg aatagaagtt tttggaggat tattacacta 300 tcagcggatc aagaaaacta acggaattaa ataaaacgct cagtcaaatg attctttcag 360 aatcataata cggcatcttt tacttacatg tccgatttgc gacccaactg cttttgaggt 420 aaaataattt gaaccgagtg agaatcattg gtattcggaa ttgggtggct catgatagca 480 atggctcttg caactttcca accttcttaa cctgtagcat tagcatactc gtggtgctgg 540 tcttcatact aatatatgaa ttcgatgcg 569 <210> SEQ ID NO 281 <211> LENGTH: 620 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 281 tgacaagcct ccagctcagt tgggttctag cagagattat aatgttgata tgatccctaa 60 gtatattatg gcaaatggtg ctcttgttcg cgtcctaatt cataccgatg taactaagta 120 tttgtacttc aaagctgttg atggcagctt tgtgtacaac aaagggaaga tccataaggt 180 gcctgcaact gacatggagg ccctgaaatc tcctctcatg ggcatctttg aaaagaggcg 240 tgcacggaaa tttttcattt atgtccaaga ttacaaagaa aacgatccta aaactcatga 300 aggcatggat ttgtcaagag ttaccaccag agaactcatc gcaaagtatg gccttgatga 360 caacaccgtt gacttcattg gccatgctct agctctccat agggatgaca attacttaaa 420 tgaaccagca ttggaaactg tgaaaaggat gaagctttat gcagagtctt aacacgtttt 480 gctggagggt cccatacatc tatcctttgt atggccttgg aaacttcctc aggcatttgc 540 ccgtctgagt gcggtatatg gtggaactac atttgaacaa actgaatgtt tggtcaattt 600 taataaggaa gtaggtgtgt 620 <210> SEQ ID NO 282 <211> LENGTH: 607 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 282 cggcacgagc ggcacgagct ccgtcgtcct accgtctacg atcatgaatc ctgaatatga 60 ttacttgttc aagcttcttt tgattgggga ctcaggagtt ggcaagtcat gtcttctact 120 cagatttgct gatgattctt atctggatag ctatatcagc acaattggtg tcgattttaa 180 aattcgtact gtggagcaag atgggaagac tattaagctt cagatttggg atactgctgg 240 gcaggaacga ttcagaacta taactagtag ctactaccgt ggtgcacatg gaattataat 300 agtatatgat gtaactgacc aagaaagctt caacaacgtg aagcaatggc tgaatgaaat 360 tgatcgatat gcaagtgaaa atgttaacaa gctccttgtt ggaaacaagt gtgatcttgc 420 tgataacaga gccgtgccat atgaaacagc aaaggcattc gcggatgaaa ttggcatccc 480 cttcatggag actagtgcta aaaatgcaac gaacgtcgaa caggctttca tggctatgtc 540 tgctgacatt aagaacagga tggctagtca gccagcatcg aacagttgca aggccgccta 600 ctgtgca 607 <210> SEQ ID NO 283 <211> LENGTH: 390 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 283 tgcacatgaa atcggaactc tttggagaga tagtgctata caggaaacat atttccgtgg 60 taatgaacta caacttccag attgtgctca tttttttatg gagaatttac aaagattatc 120 tgatgcagac tatgttccta ctaaggaaga tgttctttat gccagggttc ggacaacagg 180 tgttgtagaa atccagttca gcccagttgg agaaaataag aaaagtggag aagtataccg 240 tctctttgat gtcggaggcc agaaaaatga aagaagaaaa tggattcatt tattcgaggg 300 tgtttcagct gtgatcttct gtgctgctat aagcgagtat gaccagactc tctttgagga 360 tgataacaaa aaccgaatga tggaaacaaa 390 <210> SEQ ID NO 284 <211> LENGTH: 615 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 284 cttcctccaa acaacaccca aaaacccccc atccggtcaa ctcctccggc gttgctcaat 60 cctttctcgc ccaacgacag aggactattt cccatacaaa tctccctcga ctaccgtcca 120 cgatcatgaa tcccgaatat gattacttgt tcaagcttct tttgattggg gactcaggtg 180 ttggcaagtc atgtcttcta ctcagatttg ctgatgattc ttatctggat agctatatca 240 gcacaattgg tgtcgatttt aaaattcgta ctgtggagca ggatgggaag actattaagc 300 ttcagatttg ggatactgct gggcaggaac gattcagaac tataactagt agctactacc 360 gtggtgcaca tggaattata atagtatatg atgttactga ccaagaaagc ttcaacaatg 420 tgaagcaatg gctgaatgaa attgatcgat atgcaagtga aaatgtttac aagctccttg 480 ttggaaacaa gtgcaacttg ctgataacag aaccgttccc tatgaaacag caaaggcatt 540 cgctgatgaa attgggatcc cttcctggaa atagtgctta aaatgcccaa acttcaaaag 600 gcttcatggg tattt 615 <210> SEQ ID NO 285 <211> LENGTH: 569 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 285 cgccaaggtt gatgctgttg tttacctggt ggatgcttac gacaaagaac gatttgcaga 60 atccaagaag gaactagacg ctctcctctc tgatgaagca ctcgccactg tcccatttct 120 catactggga aacaagatcg atatccctta tgctgcatct gaagatgaac tgcgttacca 180 cctcggacta actggtgtga caactggcaa ggggaaagtg aaccttcagg actcgaatgt 240 gcgccctttg gaggtgttca tgtgcagcat cgtgcgcaaa atgggatacg gtgagggctt 300 caagtgggtg tctcaatata taaattaggg ttataatctt caagaaaatg gataaaaggt 360 ttgcctgtaa ccttctctct cttgatgaac tgggaaagaa agaggttaaa ttggaaggga 420 tggaaagaat ggtgggaaga agaatttgtt taagtttgtt acttgttgaa acttgtatgg 480 catgctttaa gtttgtaagt taagtatggg atttgattga tatctgtata attctctttt 540 tatcttataa atttggaggt ctttgcact 569 <210> SEQ ID NO 286 <211> LENGTH: 598 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 286 aaatggcggg agcagcatca gcgctgttcc tactggacat taagggtagg gttctggtgt 60 ggcgggacta ccgcggggac gtctccgccg tgcaagccga gcgctttttc gccaagctca 120 tggagaagga gggcgatcca gagactcagg atcctgttgt gtatgataat ggtgtgacat 180 atatgtttat acaacacaac aatgtatatc tcatgactgc atctcggcag aactgcaatg 240 ctgctagcct tcttttattc ctacaccgag tagttgatgt cttcaaacac tactttgaag 300 aattagaaga ggaatctctt agagataatt ttgttgtagt gtatgagcta ctggaccaaa 360 ttatggactt tggctacccg caatacactg aagcgaagat cttagtgagt tcataaagac 420 tgatgcttac aggatggaag tttcgcagaa gcctccgatg gctgtcacaa atgcagtttc 480 gttgcggacc gaagggatac ctacaaaaag aatgaagtct ttccttgatg ttgtggagag 540 tgtcaatata ctagtccata gtaatggcca atcattaggt cgacgttcgt ccgggccc 598 <210> SEQ ID NO 287 <211> LENGTH: 407 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 287 tgattcttcg ttctgtgtat tgaggagtga aaatcagagg ttttactgct ttcctcgtac 60 tagggttcgc attcggtttc atttttctgg actcagaaaa cttgtgtgcg aaattttata 120 gctaggtcgc ttttagggtt tcgcctcatt tcctgaagta atttctgcaa tttcaccaca 180 atggctggca aaaatgtgat ctccgacgac gaagatgaga ttggagttga agaagaagaa 240 agagacgaag aggcttatgg agacccacgg gatgatcgtg gcgatgacga tgatgatgaa 300 gaagaagaag attaggaagg accgattaat attaaaaaga tggatttata gtggacgatg 360 ttgaggaaga agaagatgaa gaggaagaac gagttgatat tgaccaa 407 <210> SEQ ID NO 288 <211> LENGTH: 442 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 288 tgctgattat ctctctcccc tccctaagga aaaatgtcgt ctttgggtac atcaaaaggg 60 attttggaga ttgcgaaatt tgcagtatac gtcactgttc ccatcgggtt gatgtacttc 120 ttcgccagca atacaaagaa tctccagaaa gttatgggaa ataggcaata tgtggtgtat 180 ccgcctgaag ccccacgacc tccatccccc gaggagatga gggagatggc gagggaacta 240 gctcgcaatc gagacaagca gtgaaagata aagatcgtat ttctagacat ttgctattgt 300 aaacaagttc agacgctgtc gtacttatga tcatagatcc atgtgtggtt cccctaatca 360 gtctaaacca tctgtaattt ttttctggat tagacgaata aaaaggtctg aagtctcagc 420 atttaaaaaa aaaaaaaaaa aa 442 <210> SEQ ID NO 289 <211> LENGTH: 535 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 289 gttggacatg gctgtccaga gccatgttgg acagggaacg cccctagttg ctatgtgtgc 60 aattatggat tctcgtactg atgatccaaa tgaagcgctg caagtagctg ggtactttga 120 tttgggtaga gatcgttgtg atctcatatc cttgcctctc attaattttc ccttgaataa 180 ggaagacttt gatgattata tgagaggcct ttatatgtgc accctctttc ataatgttag 240 aggttttcaa aataataaag ctctttgcag ttactctgct gtgggctttg atcagcacaa 300 agaaacccct cgttgtatac gctctcgggt aaaagagagt tgggaggata ttttggcccg 360 caataatgag tcagagcaca cccgtgttca gtcagggcaa aatcttctta acgctattga 420 gaaagagcgc aatgagggta taccagacat aggagaacat caagttctcc tgtgttccac 480 ccagtaggtc tacaccacaa agcaccgctg ttatcttcag atggtgttct taaaa 535 <210> SEQ ID NO 290 <211> LENGTH: 557 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 290 ggggattata gcagatttga tgggattact cctaggtctg ttttgcaagg aattgtaaag 60 cggattaata ggttatatcc caacaaaaat tcttttgcca taactgatgt tagcctttct 120 atcaactcag atcttgctag atctattttg atggatatgg catctaccag atatggttta 180 actgacggag acctttggta tgttaattca ggcataccat caggtttccc tttaactgtt 240 attgttaact ccttagttaa ttcattcttt attcatttta gttatattaa aataatgaag 300 cgtgaggagt tgaattcact ccgtcctttc agttctttta agaaaatggt tagctatgct 360 gtttacggtg atgataacct tgtctctgta aatgatgtgg ctgcctcttc ttataattta 420 attagtatat ctaatttact gctcgaacat ggggttaccc ttaagaatgg agctgataaa 480 aatgaagaaa ttttgtctcc attttacccc gtgtctaaag ttgactttct cagccttagt 540 ttgaaatctc aggggca 557 <210> SEQ ID NO 291 <211> LENGTH: 637 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 291 gaactcttca agtgtgtgta ataatcactt ttgagggggg agtattgacc ccaaatcgat 60 ccgtatctag ggtttgttca tcggaatttc gattcagttc cggtctcgct ccacgcaaac 120 ccgatcgctc gcgccgatgc taggtatgga gatgatgagc ggtgtaaaag tctccgacga 180 aatgctgggg acgttcgcgc cgataattgt gtactggatt tattccggga tttacgtgct 240 gctaggctca ctcgatcatt acaggcttca tacgcgcaag gatgaagatg agaagaattt 300 ggtgtccaaa ggagatgtgg tcaaaggagt gctcctccag caggcggttc aggccgtcgt 360 cgccacgctc ctcttcgccg tcactgggaa gcgacagtga tccagaacaa tctcagcaca 420 cttccctcat tgttcttgct cgacaatttg tagtcgcgat gatggtgcta gacacgtggc 480 agtacttcat gcaccgctac atgcaccaaa acaattctta tacaagcact tccactctca 540 caccaccgtc taattgtact tacgctttcg gggcattgtt caaccaccct ttaaaaggtc 600 tgcttcttga aaccattggc ggagctctat cctcctc 637 <210> SEQ ID NO 292 <211> LENGTH: 529 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 292 cacaaatcta acctaatccc ataatcaagt gtcaaaatcg atgccaggtg gcggttcaac 60 ttccggtgcc cgcgcgagcg tccgaatcgt cgtcatcggc gaccggggca ccggcaaatc 120 cagtctcatc gccgcctccg ccgccgagtc attccgcccc gaagtgcctc ccgtcctccc 180 tcccacgcgt ctcccgtccg actattatcc cgataacgtc cctatcatca tcatcgacac 240 ctcgagcagt ttggagtata gagggaagct tgctgaggaa ttgaagcgcg ccgatgctgt 300 agtgttgacc tatgcatgcg atcagcctct gactctgaat cgtctcagta cattctggct 360 tcacgagctt cgaagattag agatcagagc accggtgatt gtggctggtt gcaagctaga 420 caggggagat gaagagtaca atttgagtgt tgaaatgatg cctcttatgc acagtttcgg 480 gagattgaga cttgcatcca atgttctgct gctaacatgc tccaaatcc 529 <210> SEQ ID NO 293 <211> LENGTH: 638 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 293 gttttttttt tttttttttt tttatatatt aaactacaat ttgtataatt ggtgcctcca 60 gcacggctag gattttcttc tgtctactat tgaagtttct tcaaaatctt agtaagtcca 120 gaaaagtgac atcagcatcg acaaaagcaa aagaaagaaa ctattaagaa tacaagacaa 180 gccctacaaa ttggcaaaca taaaattgag attttgcagc tgtaaacatt tacacacttt 240 taagagctca tactgcaaat tgttggtacc tgatttcact tgtcttccat cccaaagact 300 ctgcacccat gaagttgtcg aaacaactca cccccaactt tcacttaatc gatcttcaca 360 gaggaatata tcttccgcac gaaccagaag caagcataga acccgattgt cccggtcaga 420 gcaaagaaag catacgatgc tatgagcatg ttccaaatat aaaatgccga aaccagcttg 480 gtgatttcca gctttgtgaa gaagtagaaa gctgagtata gaaagaagtt taaagcagaa 540 gagccagctg tgagataagc tctccaccac caatgatagt ctcccctgcc aactggaaat 600 acccaaggac aatgtttctc tggccgatgt gatgatca 638 <210> SEQ ID NO 294 <211> LENGTH: 265 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 294 gttgtcttta ttcccattgg tgttgtctcc ctcttcgctt cacgagatgt tgttgaaatt 60 gttgataggt atgagactga ttgtattcct ttgccttcga gaaatgacaa ggtcggattt 120 attcagagca atttaactaa aacctgccga agaactctta gggttccaaa gcatatgaag 180 cagccaatat atgtgtatta tcagctcgac aatttctatc aaaaccatcg tagatatgtg 240 aagagccgaa gtgatcaaca gctga 265 <210> SEQ ID NO 295 <211> LENGTH: 554 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(554) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 295 cacgcctcct cgagctgcac tgcttgtagc cccaccgtgg tgggggagta tgagaagaaa 60 ggattggatt tcgtactgga agctatcaac catcctactt atctggaaga cttaactggc 120 ctaactgaac taatgaagtc tgctagctcc tttgatgtgg attggatcga cgaaactggc 180 aacgaagacg acgatgaatt tgctcttata tgacttcact acactttcta ctgacgttgt 240 gtggacgtat gtgacgatgc gcggcggcga tgttgcaggt ttctgggtcc agcaaaagac 300 tacttgaccc attgtctgaa ataaaaattg ctaattgtat aaataatatg ggaaatattg 360 ttttacgctt gaagactttg tttattgaaa agttgaacgt ttgattccna aaaaaaaaaa 420 aaaaaactcc aaggggggcc ggtnccnatt ccccnatagt gagtcctttt acaattccct 480 ggccgccttt tacaactcct gactgggaaa accccgcgtt tcccacttta tcgccttgca 540 gcacatcccc cttc 554 <210> SEQ ID NO 296 <211> LENGTH: 474 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 296 ggaaaaagat tcgacttttt cttttttcaa attttctgtt gttttttttt catccaaatt 60 cccccttcaa actagggttt cggatttcat ttgtttgtga tcatgcaaat caagaagcta 120 gtttctctgc cgtctcgcac cgggaggcat ttgcagcgct acaataaggg atttcgtcaa 180 gttgttggat gtattccata cagaattaga gacaccaaga aatctcattt gatcgatgat 240 atcacgctcg atgatttaga gatcctctta atcagctcac aaaagagcac aaggctcatg 300 ttccctaagg gtggatggga actcgatgaa gatatcgaat tggcagcttc aagagagacc 360 ttagaggaag ccggcgtagt tggccttcta ggggaaaaat taggtgaatg gattttcaag 420 agcaaaagcc aagagaagta tcatgaggga tcgatgtttc ccttgtatgt cacc 474 <210> SEQ ID NO 297 <211> LENGTH: 649 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 297 aaatgcctcg ccgtagctcc ggtggaagat catcccgccc agctgcacgt gcagctcctg 60 cacgtaaccc acctgctcca gttaatcgtg ctcctcctcc agctcctgtt cagggtagct 120 ctggtggatc tatgcttgga ggcattggtt caaccatagc tcaaggtatg gcttttggta 180 ctggaagcgc tgttgcacac agagctgtgg atgctgttat gggtccgcga acaattcaac 240 atgaagctgt tgtctctgaa gcagcagcag cagttccagc acctactgct tccaacatgg 300 ggggatctga tgcttgcaat atgcatacca aggctttcca ggattgcctg aatagctctg 360 gaagtgacat cagcaagtgc cagttctaca tggatatgtt ggctgattgc cgcagaagct 420 ctggctctgt gatgagttct taattgtaga attgtgcagc acaacattga gtattggttt 480 ggaaatgttg ctaagaactt taatatcgga tggcgataca gccatttaag atggtgatgt 540 aagggacttt ggtgctccct ccgttcttgt taccatatga tgtgttctta aggacatcca 600 agttcaaata agcgcatctt cctttcaaaa aaaaaaaaaa aaaaaactc 649 <210> SEQ ID NO 298 <211> LENGTH: 605 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 298 atttcggctc cagccctaaa ttcgacccag taaaaactct ggcgatatct ttgatttgaa 60 tacggaagca gctaggattg gcggcacgat gattcgccgt cgattaattt cgagggttcc 120 agttttattg ttttattatt catgctccat ttttctcagc tattctccag tgttgatatc 180 agccgcagtt gtcacgcttg attctataga gatcttcaaa acccacgaat ggattccaac 240 caaaccgaaa gtcttctttc agtgtaaaga agaggatgag ataattttac ccgatgttac 300 agaaaaacac gtactgtatt cattcagagg tgaagaatcg tggcagcctc taacagaact 360 tcctgatata aaatgcaaac gatgtggact ctacgaaaag gatgctatca aatcaaatga 420 tgtatttgat gagtgggaac tttgtgcatc tgatttccaa ggtctgatgg caagtatatt 480 cattttaaag agaaagattt caatgccaca tttctatgtg ctgaatgtgt agttctggca 540 aaagcttcat ctgcttcagc ttcagcgaaa gaggattctc taattcaaaa aatgaggact 600 cgagt 605 <210> SEQ ID NO 299 <211> LENGTH: 334 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 299 ctttaggatg ccaaacctga aagctcggct gaacactttc cgtgaagaat tccgtgcagt 60 ttggcgcaat tatagtgata tgtagcttgt gtatagcaga gcacatgaca gtttctttac 120 cctgaaagtg catatttgga tattctgtct tcatcgtata atttgtacac ttcactcaat 180 cctatgttta tttatcatgc ttgatacttg ttgcattaga tatgaaatag atgtccacag 240 tttcagtgta aaagtatctt gaaattggtc ggagtggtga tagtcaattt ttttaaattc 300 tgtttccaac aaggtgaaaa aaaaaaaaaa aaaa 334 <210> SEQ ID NO 300 <211> LENGTH: 503 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 300 cagaggcgtg cttcaccgag atggctcagt cctgatgtca gttactctgg atcagttgaa 60 ggcacctgaa ttgctgtaca agtctcttgc agcaaagctt attgttggaa tgccatttaa 120 agatctggca actgtggact caatcttggt tagagaactt cccccacaag atgataaaaa 180 tgctagattg gctctcaaaa ggctgattga cattagcatg ggagtaataa ctcctctatc 240 agagcaactg acaaaaccac tacccaatgc attggtcctt gtaactctca aggaattatc 300 atctggtgct caccagcttc ttccagaaag gtacacgttt ggtagtctca ttacgtggtg 360 atgaacccga aagaagagtt ggaaattctc aagacgactg atgctaccat ggatctccat 420 cacgtttcca tattcagatg agaaaaccgg cttaaattca tgcctgcaat aaggctttcc 480 aattatcttt tcagaagact tcc 503 <210> SEQ ID NO 301 <211> LENGTH: 618 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 301 ggggtgctaa tttgctgaat aatggtttgg atgcgcattt gaagaaaata atttcgcaat 60 ctttaggtat tggtggatct cggagcgtgg atcctcgttc tattgcaaga cagccgaatc 120 ttgaaagaac acagccaagt aataatgcaa gtttgttgga tttccgggta gctatggagt 180 cgaatccgtc tatactcggt gaagattggt ctacgcagct tgagaagatt tgcaattatg 240 gcttacaata agctccatga tttgggagca aactcatttg aagaatcaaa tcaagtgagt 300 atttatacta tagacacaga tttgaggttc catccacaat aactcgagga cgaaggtgaa 360 gttacaactt taattgtagg aagaggagag catgtttaca ggcgatttta catctgatac 420 agatttttaa catctcggtc agtctctaga gtccgagata atttttcttt tatttttacg 480 tggacgtggt gttctacagt agagtgttta ataaatagga gccattgtat catctctttc 540 acttgtgttc cagaaatgaa attgttgaaa gttggtagcc aaaaaaaaaa aaaaaaactc 600 gagggggggg ccggtacc 618 <210> SEQ ID NO 302 <211> LENGTH: 621 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 302 tcactcccca ccttcttcac cttctcctca tcaaaactta atctttttct cacaatcacg 60 tacccattcc ctatcaaaat cctcccaata attaaacccg taagaaaaaa ataaaataaa 120 atagagagat gaagtgggga agaaagaaat cttcatctct gatcaatcgc gtgtttcccg 180 tttcttggtt ctccaaattc aagcgaaact cttctaaaca cagcaagaat tcagtcctcg 240 acattccctc tccgaattca tctttctaca gagaaggcag attctacagc gtcgacgaag 300 acgacgccta ttggagaatc tccttcggcg gcgacgacag aatccagcca cggcggagca 360 ccggcgggag tcaatcctct ctggcaagac tccgacgaag atcacgaaaa tcacgtcttc 420 tccggtttca agaggttcgg attggccgaa gcccgaggtt ccgaccaaaa gacgagtgcc 480 ggaatttcag tgagatggtt tcggatatct agaggatgag agagaggaga gttaagccgg 540 cgaccaacga tgagagagtg attctccggt cgaaaccgaa accgacggtt aaaaaagccc 600 gagctcgaac cggaacctga a 621 <210> SEQ ID NO 303 <211> LENGTH: 640 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 303 ataatttggc gcagttgtaa acagaaggac tacaagaacc tttcttcgcc gactcttata 60 tttcaggatt acatgcctcc ccgactatga aaatctatag attgtgtata tcctgaaaat 120 tatctgcttg caactagggg tttgtctagg ctgcgaactt accattactt attctgaaaa 180 ctgtatctca ttaatttggt ggtatggtgg ataagcttta gtcaccattc taaatatggt 240 gcataatctg gaaatgctta gcaggcttta tcagcggcta tctactggtt gaactgtaca 300 ggtggcagta ttgggttaag ctttctgctt ggcctaagtt catactggag ttctccattt 360 tggcggtaat attgctattc cttgacaaaa tcctcaacta ggatctctgc acgtggtgga 420 agcacaagtg tatagagttt gaccagtcaa tgactgcaca attctaggtg atcgtctctg 480 gtgaagagaa aattttgtgg tctgttacca tgattctgca gctgatattt gggtaaaatg 540 atgaaatcct ctaacccctt gaacagttac atcatggaca aaatgttaag ctgcatcact 600 tggtaaggat caagggtatc acatcttttc acttgttaat 640 <210> SEQ ID NO 304 <211> LENGTH: 638 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 304 cgagtttttt tttttttttt ttactttatg atttgtctcc gcttgattaa gtataaactg 60 tataatagta cacgtgaaca agaaatgtgt tgcactaagc tcaaatcaaa cttccttaca 120 aaagttcaat gcagttcagt tcacaattat tatgctaaat tcgttagaaa caccaaaatt 180 aggaaaggaa ttgataaaaa tatcgcgcta aagccttctc gagaaccttc aaaattgttc 240 aatgctcatc cagctcgcaa ccgcaagacc ctaaaaaata acaccataag ctctttaatc 300 aggcgcgctg agcattcttc gagacgtgac tggcagaaaa tcgaagtgtt catttcaact 360 tgttgccacc ttccttttaa caattctctt ccttctagcc ttgggaacag gtgcagtacc 420 ttcctcttta gaatcagttt gtccttgtct gatcccaaga agcccaagcc cagagacaat 480 agcattctta gatataaacc atttcggaga agactggttc acgccttctg aaggtctgtt 540 gtaagctttc aagaaatcct ctgagggtga accaatggat cagcttcaca ccaagccaag 600 ccaaccttga agttctctcc ccttgaacat tcaaaacc 638 <210> SEQ ID NO 305 <211> LENGTH: 592 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 305 ctcgagtttt tttttttttt ttttaaaaaa agaaaatcat aagtacttat taattgcaat 60 aggataccaa ataatttatc atttcacagt ccaaccacca ctaatacgtt ttagtgcacc 120 tgaaaaaata gagccgtgaa taatgaaaca accagctaac aactaaaaca ctaagcagta 180 gcagatgatt caattctggg ttttcgataa gtagtttccc agattgatac cagtttttgt 240 gctaaaaaaa tcctagcttc catcaactct agaaaaagtt ttacattaag aagttgttaa 300 agctgggtat tctcacttaa gctgacacag cgggatattc atattatggc taacaaaagt 360 tacattcaga atactgaaac tctgtgccaa gattcttgaa aatttcttct ccgttcaagc 420 tggaattata tcaactgtgc aaagaaattt ctcaatcatt aagtctgcag cagactgcac 480 tttgttatca ttggttccaa atacatgccc cgatattggc aatgccatta acaggttcca 540 caaattgcag ctgaatgctg atgccccacc tggtgtgggt caatctgctg ca 592 <210> SEQ ID NO 306 <211> LENGTH: 442 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 306 cgtgccgaat tcggcacgag cggcacgagg tgaatttcag ctctttaaac gagtggacgc 60 tttgaagtgc agtgaagcat tcaaggcttc ccgctcgtgt ggtgagtaga cgctttgaag 120 ctaggtgaag cgatcaaagt ttctaactcg taaaacttgt gcggaatgtg gtgagatggt 180 tataactttt cttgcaatta aaaacaattt tctatttaaa gcgtgtgtgt gtgtatgata 240 ataaccaaag caataatgaa cttaaaagta agagacaacc gattttatag tggttcggag 300 tacccctcct acgtccactc ttatccacga cgggatgaat accttcacac ggtatccatt 360 attttatact tccaagggga agtgattcaa ggctagtaac aaacttgtcc ttgaatcctc 420 agagattttg ctggctctcg aa 442 <210> SEQ ID NO 307 <211> LENGTH: 383 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 307 ctcgtgccga attcggcacg agcggcacga gtcatattca agttcgcaaa gtgcagagct 60 gatgcatgga taagtgggaa ataaagcctc tgctgtatag atacataatg ggattatcta 120 tctcaagtca tgctaattga ggtaatttgt tcgtatttat actattttgt tgtaataaaa 180 cctagtttat acggacccct atcgatcgtt gttgatggtt tacgcgaggg gtatagacta 240 tagagccttg aaaccttaag gaaggataaa atccataaac ttgcaacgtt aatgttattt 300 gcttcttatg tttttgatag tggattgtga atgcaagttg agagattatt agcctttcag 360 tttttaccat ttattagttg acc 383 <210> SEQ ID NO 308 <211> LENGTH: 404 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(404) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 308 aatggggcaa gccnaaattg ttttnctgtt taggggaaan nattngagaa gaaaaacacn 60 ttaagaaaat tttccccanc anggggtcgt ccccggttca atgctgcagt tgcccgatgt 120 ataangcntn cntacgaant cttttctgaa gncgaatgca nncaaggctt tccccattgg 180 tncgtctatc ttcgaaangt cattgatcaa angctgagaa gtttatgctn taaaacggcg 240 cgttnagaaa atcggaaatn tctncagggc ccccttgttg gganaaaatc caaatttnct 300 tcnccctccc ttncagggag aaaancgnaa tccntttaaa cttcccnttt ttgggggggg 360 ggaaaattan ttggaaattg gnggnnggag gttggatttc ccnn 404 <210> SEQ ID NO 309 <211> LENGTH: 382 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 309 ctcgtgccga attcggcacg agcggcacga gtcatattca agttcgcaaa gtgcagagct 60 gatgcatgga taagtgggaa ataaagcctc tgctgtatag atacataatg ggattatcta 120 tctcaagtca tgctaattga ggtaatttgt tcgtatttat actattttgt tgtaataaaa 180 cctagtttat acggacccct atcgatcgtt gttgatggtt tacgcgaggg gtatagacta 240 tagagccttg aaaccttaag gaaggataaa atccataaac ttgcaacgtt aatgttattt 300 gcttcttatg tttttgatag tggattgtga atgcaagttg agagattatt agcctttcag 360 tttttaccat ttattagttg ac 382 <210> SEQ ID NO 310 <211> LENGTH: 450 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 310 tgattccaat aaatcgaaag gaaaatacaa tacaaagatc aacatgttta catgtaccta 60 caactttctg ttctaactct ctcttaatta ttacccggga agagattgtt tgtttcgact 120 cgactggact ggactacatc aacaaccaat ctcaaatcat acttaaatct tcaaaataat 180 tatttatacg ctgtatagat ttgcatccga ttactctata tctagctagg ccaaacatac 240 gacgtgaaga agcaaatgta ggttcttaga gactacaccg actaccaaag cttcgtgtaa 300 ttttcttcca acttacccca atttcaagta gatggaatgg agctaagact ttatcaatct 360 gcatttcata atatcacaca aatgcatttg ttctgcttcg catcgtatgc ggattttgtt 420 tctgcagcat atatatatat atatatataa 450 <210> SEQ ID NO 311 <211> LENGTH: 498 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(498) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 311 cggcacgagt ggagatgagg cagcacggaa ttcagcctaa acacgacgag tacaataagc 60 tgataaaatc tctttgcttc aaggctttag attgggaaac ggctgaaaag ttgcaggagg 120 atatgaatgc aaatggcata cctctcaatg gtagaacgaa ggctcttatc ggtgctgtaa 180 gggacttgca ggaagcggca agctctgaaa caggtgattc tgccgaattt ccataaactg 240 caacattgaa gggtttattc aatctctttt gtggattcnt gttgcttttg tcaagaacaa 300 aactttacgc tactcctagt ttcgttgatc atcaataggt gacattttta catggccttg 360 agaatttagg agaagtgatt tagtggctga tgtatttttt ttgttagcag tcgtgatctt 420 ttaacccatc atattgtttg gttaataaac atgtttggaa tatttttagc tataatttat 480 tcgctaatgt ttcccctc 498 <210> SEQ ID NO 312 <211> LENGTH: 286 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(286) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 312 caatttgcag ccttgcactg agtactcgtt ccgaatcatc tcttacacag aagctggcga 60 ctttgggcac tctgaagtga agtgcttcac aaggagtgtt gaaataattc acaagaatca 120 agaccccaac cccactgcan aaagaccaca cggaagtagc tatagtgcca agcaccgtca 180 ctcaactgaa gcaatagaac tagattcagg attcaaggtc cgagatcttg gaaggatctt 240 agatcccgct tggctgcatc aacatcaaga ctatctcgag tcattt 286 <210> SEQ ID NO 313 <211> LENGTH: 132 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 313 gttggtgcca gtgcagagat cccgctgtca gctcgtgtta atgtagtagg aggagcaaat 60 ggaaagaaga ggactgttgt catggcgtct ggacctgggc gtgcaagagg tggcttttta 120 ggtgcatatc ga 132 <210> SEQ ID NO 314 <211> LENGTH: 177 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(177) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 314 cttcagtgct tgacgttgct cgaagatagc atcaagagag agtttttgtc tgtgaattac 60 ganacctcct ctgaaatact gagttcgtcc aaagtcgtga aatttgatac cgacacttca 120 tctcccccat ggatccctcg tactgcacct gccgtaactt taaggctcat ggacctc 177 <210> SEQ ID NO 315 <211> LENGTH: 222 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 315 ataaaacgga tctattctat taagtcaagg tgcggaaaga gagggattcg aaccctcggt 60 aaacaaaagc ctacatagca gttccaatgc tacgccttga accactcggc catctcccct 120 acataatgat tatgaatcaa aaacccagtg aatagtgagt tcttcatatt cgattataga 180 ttattggatg ggtatgacca atctatttta actatattat at 222 <210> SEQ ID NO 316 <211> LENGTH: 252 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 316 gaactagtga aaatgatggc ttgggagaaa atcgctcgaa atgagcggag agaaattcgg 60 actttgacca ccccctattg ttacccatcc cataagtgtt acaaggagat gagaatcgtt 120 cgaaacggat gagtaacgaa ggaaattgag aggtaagaaa cagagaaaat gatggcttgg 180 gagaaaatcg ctcgaaatga tcggagagaa attcggacat agaccacccc gtattgttac 240 ccatcccata ag 252 <210> SEQ ID NO 317 <211> LENGTH: 160 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 317 aaaaaatgat ggaacgagaa gaactcatcg atttcttgat aaataaaggt aacggcgtaa 60 cgggcctctc ccaactgaag ccggaaaaaa tcccagatca gttcatcctc cccactcgtg 120 aaagactgca tcacatccaa gtttcaaccc aagaaaccat 160 <210> SEQ ID NO 318 <211> LENGTH: 210 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 318 ttgattttaa ctgaccagtg attttctgta gaagttgaag aaatgcaaaa catggcggtg 60 tttcagcggt tttccaggaa tttccgggag aattcttcgc ttgccaaaat gctggttgtt 120 ttcgccgtcg gtggtggggg ccttgtagca tttgctgatg ctaaatcaga ggatgcaata 180 aatgttgcca atccatctga ggctgatgac 210 <210> SEQ ID NO 319 <211> LENGTH: 232 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(232) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 319 ggaaaaaacc aaaaaaaaag tactgaaata aaccgattat tcaaaggatg agaaagttga 60 atcctctcgc cgaaatccca ttctcgaatt tcagtttcag aggagaaaat tgggagaaag 120 aaattatgtt gcggtgaaaa tacttccatt tttttttttt ttttgtattt ttctgttttt 180 tgaangttga gtattgttca cgtgatgctg ttttgagaat ttctggaaat tc 232 <210> SEQ ID NO 320 <211> LENGTH: 238 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 320 tctgtggtgt tgctgattgg gatcctatcc ttgaagagct ccaagaaatg ggttttaatg 60 acacagaagt gaataagaag ctgctgaaga agaacaacgg gagcatcaag cgcgtggtca 120 tggacctcat tgctggagag gaggatgttt agcctgggga agattatgta tatgctatga 180 ataaatgatt atggacctta aggtttatgt taatatggtg atgccctgtt ctagtaaa 238 <210> SEQ ID NO 321 <211> LENGTH: 447 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 321 cattagtgtg tttgtgcatt tctcttgcat gaaattttgg ctatttcttt tttcttgtcg 60 agctcgccat aattttgctc aagtggtata ataattgcta gtgaaaactg taatatatgg 120 taaatacatg aatttaattt caagtacata ccagcttaaa tccaaaaaat agcgaaaatg 180 aagataatcc tttaaaatag ctaatgtgat aggaagagct tataagctta taagagctta 240 taagatgttt caaaaactta taaaatgtac ggtggtaaga atttataaat tgttaaaatg 300 tttggataaa agagtttata agttcaaaat atataatact tcctctgtct tagagatatt 360 gacaatttca tgattttata cctcacatat caataagaaa tggctaaata tctttgagcc 420 ggagaaagta agaaattaaa atctaaa 447 <210> SEQ ID NO 322 <211> LENGTH: 391 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 322 actctttctt cgcgaggatc catttcaaag cacttctatt tttgggaatt ttgatttttc 60 gaatccgatt gctgcgctgg tcaatccccg agttgacttt tctgagttcg ggaggaaatc 120 gggttgaaat tcctcaggat ttagttgttt tctaaagact ggggattcga ttgtttgggg 180 attattatgg atttgaggtt ttgacgaatt gggatttata gtggaaatgg tggatgacgg 240 tgaaatgttc cggtttttct cggcatcgat ggctttagat tgaaatttag gaggtttttg 300 agcttgttga tttgttgatg gatatgaata gtaatggatt gaagatagaa gtgaacaatc 360 gcgttctggg cagcttggaa tctccgaaag t 391 <210> SEQ ID NO 323 <211> LENGTH: 532 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 323 tttttttttt tttttcagaa aacactacac tactcatatt aaactcaaac ctgctatgta 60 caaagatctt ttcttttcct tttctatttt caagaactca gtctacaaat tatttatcaa 120 acaatatggt ttcaaataca accaattaac actcaaccct ttctcttcat tccagcctga 180 ctcccaagga atatttacaa gtcaccgcat ctaaccaagc atccgtccca ttacaactcg 240 aggaagaaag cacaaacaca aatctaccct aatatagcag cagcaaacaa cgaacgaaac 300 ccatacctcg gatttctcaa aactggcaag aagtcccgag cctcgatctc tgcttctgtc 360 cgagcgtgat ggacttgcgc ctatcgaatg cagggaaaag cagttcttga aacttctcca 420 gaaaaagtgc ccattcttct tccttcatat ctgctagctt cacaaagctc gcgctcgtgg 480 gaagctgttc atttgcactc cttccgctag atgagttagc agcttcgctg ta 532 <210> SEQ ID NO 324 <211> LENGTH: 367 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 324 cacaggcgct attttgattt ccaacgtaga actggtcaac tgccagtgca aaaggagggt 60 gaagaggttg actacagagg cgtgcttcac cgagatggct cggttctgat gtcagttacg 120 ctggatcagt tgaaggctcc tgaattgctg tacaagtctc ttgcagcaaa gcttattgtt 180 ggaatgccat ttaaggatct ggcaactgtg gactcaatcc ttgttagaga acttccccca 240 caagatgata aaaatgctag attggctctc aaaaggctga ttgacattag catgggagta 300 ataactcctc tatcagagca actgacaaag ccactaccca atgcattggt ccttgtaact 360 ctcaagg 367 <210> SEQ ID NO 325 <211> LENGTH: 391 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 325 tggatatttg gtggcatcag gggtaggtac agtatactcc gttagcacgc gccgccgcgg 60 atggcgtact cgtcgctgtc cctctgccta ccggcttctg ctccgtttgt agcttcgacc 120 tcgtcgacat caattatggc ctcctccacc attacaaacg ccctttctcc actgccgtcc 180 ttccccagaa accgcagctc aatcctggcg cgtggccgcc ggagatcatg gattgtgggt 240 atggctccag aagaagagaa gatgacccgc cgttcgcctc ttgattttcc catcgagtgg 300 gataggccaa agcctggaag gagacccgac atattccctc agttcagccc tatgaagact 360 ccattaccac cacctatgcc agctgacccg a 391 <210> SEQ ID NO 326 <211> LENGTH: 382 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 326 caaacaccac cgttttctct ctctaatctc tcctcctaat ctttggcggt cgttccgggt 60 ctccggaggt atcataatct cattttcccg gaattttttc tccctccgat cgccgatctt 120 tcgcttaatg gggtcttgat cagggcctct ttgagttttt ctgataagag tagctgttgg 180 atcatatgag gtggttgctc gtttcattgg gcgattcaga tgtacatttg ctggtggatt 240 ttggcgaatt gaattcttgt acacataagc ttgtcaattt atcacattgg agctgtagtg 300 atatagtaga gggaggtttc tatgggtgag ggaggcgagc aacttgaact taagttcaga 360 attttcgacg ggacggatat ag 382 <210> SEQ ID NO 327 <211> LENGTH: 410 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 327 tcgctcttca tgaaagccag ctgatattcg agctgttcta gcgtcatatc aaggtcatga 60 cattccaaaa gagtttatcg aacgatcaaa agagcatcta aggaagatgc aagaacagaa 120 gcagcacagc cgtccctgga gactcagata atagtgccaa ttgtcatcaa ctttattcac 180 ctgaagaaac atttgagtat attaaatggc aaatctttct taggctgcct catcacaatt 240 ttcttttgac ctaaatattg tttctgtccc catttttaac tgtcaatttt gcccttccaa 300 catctgtcta gatataaatt ttgcaagtca ggcaaaaata gttcctatgg gagttgagta 360 tgtatattgc atggcattga ttcgttaatt tatagtatta ttttatctga 410 <210> SEQ ID NO 328 <211> LENGTH: 439 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 328 ctctcgatcc tccctgcccg atctcttctc ttccttctgc actcgccgcc gatttacgca 60 cgctgtcgcc gtcgaagatc ccaccggcac cgtcgctgcc tcgtgctgcc tccttggccc 120 tcgatgggtc attttcttct ctgaatcttt cccgattggg gcttgaaaag aaaagcccca 180 attccttatc ctcccttcga tcttccggcg aataccctcc gatcagcgtg cctccctcgc 240 tgctcggttc cggtcgcgct cctccgatgc cgcggttgag acggcgccgc gccaaccgcc 300 gcccggtcgt ccttggctcc aattcggcgc ctctgcttcc tccggcgcgt gctatggtgg 360 ccggtgcacc tcccgcgagc cggcgagatt ccgattcgcc aaaattaaaa tctttaatct 420 gaaatttcag attaaggga 439 <210> SEQ ID NO 329 <211> LENGTH: 501 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 329 ggccaatgcg cactgccctt gttgcaggat ggaaattcct tcttcataat ctcttctttg 60 taaaccaaac ccatgcatat tgtaatatgt taatttaaat ccttttttct ttttcttttt 120 ctttcttttc ctcaaaattg agttgcttgg atgataaata cgagtagttt ttttatttaa 180 cgaattcaac ttttcgaatt ttgttagaag agtttttttt ttttcattcg gtggtgactc 240 gaatccgcag ctcggtggtt gaaagagaag cgtcttggcg attgagttgc acttccttat 300 caaattttat tagtagaatt gcaatgattg aattatacta gtagtgtata ttagagaatt 360 ttcaaagtac ttttctttcc tcgcacaaaa tacagggtat ctcctatcaa tatatggaat 420 taattgattg ctaatagaat tttgatattt ttgtaatttt tccatagctc cagatacatc 480 tctatagcca gatagtctgt t 501 <210> SEQ ID NO 330 <211> LENGTH: 443 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 330 tttcaacccc cttctctctt agccctaatc gacactccct ctctctctgt gctcttctcc 60 ctcgcgattc tccttcccga gcgccgttct cttgccaccg tcgttggaat ccgccgccgt 120 tggagttgtt gcgccgaggc cgccactgct gtgccgtggc gagttgaagg ccgctgctgc 180 gccgtcttcg tcgttgccca gccacggcga ttggtaggct gctgctgtag ccttgttgtc 240 tgcgagctcg acgactgctg gaggttctct gtgagctcga ctactttgtc gctgcagctg 300 ttgaagactc gttgccgctg cagtccagcc accgccgttg gagctgcgaa gtcgaagccg 360 ccgtccggaa gctgatggct actgtttccg gaatcgcaag aacgccatca acagtagctg 420 ttactactgc tgccgtttga ttc 443 <210> SEQ ID NO 331 <211> LENGTH: 365 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 331 ttcattcttt ctcgactctt cctttcggct tgattagcct tcatcgtttt gtcatttacc 60 ggctgagaga tttgagaggg tggaattagg tactttgtga aatggcgacc ggagctgttc 120 ctgcttcttt tactggtctc aaaaccaagg atcatcgtgg cttggggttc ggaaagagtt 180 ccgactttgt tagagtttca aacttgcaaa gggttaagtt tggcagaagc aaggtttcag 240 tgatcaaaaa ctctagcaac cccagtagag aaactgttga actcgagcca gcatcagagg 300 gaagtcaact gctagttcct aagcagaagt attgtgaatc aatacacaag actgtccgga 360 ggaaa 365 <210> SEQ ID NO 332 <211> LENGTH: 316 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 332 acaagatgcg gtaaaagaaa actcaggtca gatgtttgga gccactatta caacaaggat 60 ctagggtctg gcttttcgta tgctagatgc aactactgtg ggcatgaata tcctagagtt 120 aataggggat ctggaactgg aaatttgaaa cgtcatttgg atggttgtcc tagaaagagc 180 tcacatgata ttggtgaatt ggtgtctctt ggtggtaaat ctaagtttga tcctgaacat 240 ttttgagatt tattgtgtcg agctgttatt atgcatgatc tgccttttca gtttgttgag 300 tatgaaggta ttaagg 316 <210> SEQ ID NO 333 <211> LENGTH: 613 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 333 aaaattagag tcgagcgttt catcagagag tgatggagat taataaagat atgcgtagat 60 tttgttcttt aattaggttg taatttactt ctttcccaag taattcttag actatatata 120 tgagtatttt ttatgtattc tgagagttgg attttgataa aataaaatta gggtttgttt 180 cccttgtctt gtgttcttcc ggcattcaat agagaatcaa cggaatttgt tgaaagatat 240 tcttccttgg ttgttttgtc tttcttcact tgcttgtttg gatttatttt tgtgtgtgca 300 ggatttgatt tagggctaat tgggctgact tgaagatgga aggttttggg cttcagcact 360 tgggctgaag taagggggag tggacttcgg cgtgttggac ttaagcttca gcgagttgga 420 cttcggtttc agcatgtggg ctgaagcaag ggggagcaaa gctggattca gttggtgggc 480 ttcagcatca tgggccttaa ctctgtcaga tctgcagcaa caacccatta attactaaag 540 acctatttaa gtggaaaggt ggaataggtc aacataaatc atgggtgatt tgctggaaat 600 atgcttaaaa aat 613 <210> SEQ ID NO 334 <211> LENGTH: 482 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 334 gtctctacat gatctaattt tatcataaaa aaacctcttt aaaagtgaat aacaaacaca 60 acacgcaaaa taaaataagc aaaatttagt tgagtgattg aggtagtaaa atactactat 120 cttatcttac aagaagaaga tccttttaag cagtcacggt gcctccacct ggtggctttt 180 ggaaaaccct aaccaccgcc gttccatctt cttggttatc tcttaccctc cacgccctgt 240 tcttcttcct ctgtggcttc ttctgctgtt tatgaggttt gctcaagatt ttcttcacac 300 cgatcttatc cggagctatt ccattatcga tgtcaaaaga actcaaatca ctcagcacat 360 gctccaggac atcagctgct tcaccttcat catcagatga agtccgattc atgcggtgag 420 tcatcaccct cgtcagcgtc ccagttcatc gttcttgatt ccaggcggca ttctcaaaat 480 gc 482 <210> SEQ ID NO 335 <211> LENGTH: 617 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 335 cactacttct cattgctttt ctctctctaa aactcacacg aactcctgct caaacggtgg 60 aaatcagtga ggttcttgca ggagttatta catgtgcaaa tacttctata tcggaggcaa 120 gaacgtatgc aatagttcca cgtgcgaaag ttgaatttgt ttgtggaatt cttgtctttg 180 aaagagtagt gaaatcaacc acaacaagta atgcagggat ttacactttc tcctttagcc 240 ctacggatat tttgctaacc aacccggaga tttgccatct tagagtgacg tttccaccct 300 cctcgtgcac cttcgatcct ccgggaggaa ccctgacgtt tccgatcatc ggaatccggt 360 cgtcgtcggg ctcgttggtc cagtatatac ccggcgcacc gagctatctt tagtagttga 420 tatgttacat tatagttcgt gtctagagat tgttttcaat aaaattaaat tgtactgaga 480 aataacggga ccacagtttt tatatcatct ttgctttgtg ttaaaaaaaa aaaaaaaaaa 540 aaaaaccgaa gggggggccg ggtacccatt ccccccatag tgagtcgtat tacatttcac 600 tggcctccgt tttacaa 617 <210> SEQ ID NO 336 <211> LENGTH: 610 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 336 aaaaattggg ggtttgattc attctagaaa gagaaattgg ggcataactc agttatcgcg 60 agcgagaagc ctaccttcac cttttttcag atctgagatt tttggaaatt tggtacaaaa 120 aattttacgc agtgatatat tagggttttg ttgatggatc aaattttgaa caaagtgggt 180 tcgtactggt tgggtaaaaa agcgaacaag gaaattaact ccgtcggcga tgatatcaac 240 tcattgggtt ctagcatcga aggtggagcc aaatggctgg ttaacaagtt aaaaggtaaa 300 atgcacaaac cactgcctga acttctgaag gagtatgatc taccaatagg catatttcct 360 cgccaatgca accaattacg agttcaatga ggagactgga aagctcactg tctacattcc 420 agcagtatgt gaagtgggct acaaggattc atccgtactg cgattctcaa caatggtgac 480 tggttatctc caaaaaagga aactgggtgg acatagaagg tatccaaact aaggtgattt 540 gtttggggca aagtgacttg tatcccatcc gaaaaatcga agggcagttt cactaccgga 600 gtgaagaaag 610 <210> SEQ ID NO 337 <211> LENGTH: 636 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 337 gttaattttg caggtatggg tcaaaatctt cttaagccta ttttgagggc tgagggtcct 60 gatccttttt cttttcattt gtattttgca cactgtggta cccttgccac tgccagctta 120 aataaaggtg gtatgtggtg tgttcctgta tccccagtta atcttgctgt ttataaacct 180 aaggggacta gtggtacttt ggaatttaat gaagcttttg ttagtaaaaa tcataattgg 240 cttcattaca tgtccacttg cacagcttac tggcgcggaa cactcactta tgagttaaga 300 gttacttata aggatcgcag ttttgctgtt gcaaatttgt gtgcttttta taccactcaa 360 atggaaggac tctttggttt ctctgataaa gctattggag atacgggaat tacttccgtt 420 tgtggggaat gtttttctgt taagatttct gtcccttttg ttactcccac tctctggttg 480 cgaactatcg caatattttc gatatgcaaa catcttgcaa tggtgcattg tattttggtt 540 tgcctcttaa aggtgttgct tctgttgcaa ctatgggttc gtgctgaaaa tgacttttcc 600 tttgaacgct ttaaaattct caaagctgaa tatatt 636 <210> SEQ ID NO 338 <211> LENGTH: 391 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 338 ggaaggacga tgacgtgagg gagatgatga tgatcgacgg cggcggttgc gaggacgcgg 60 ccgtgggttc ggggtggcgc gtgaggtcaa tgtcggagag attgctgggt gcggggtgga 120 gcacggagga tgtggtggag ctgctcggag ttccacacga ttttgatcgg agcggtgagg 180 atgatgggga ctattgcttc gatttccgtc gtagacaaag ttgtgatgat aaaaggaata 240 ctacttttag ccttacattt tgattttcaa cctttttttt ctcctttttt ttttttttac 300 atattaatta tctagaaatt agttacgtaa attctcaaaa aattagtagg tagtcactcg 360 atataacaac aaaatttccg aattttcctc c 391 <210> SEQ ID NO 339 <211> LENGTH: 144 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 339 aacacattct tcaaaggatt caggaaaaga aaaaaaagaa aacagagaaa atgttcaatt 60 tgacggatat ggacatgtta tcacggcggt gcgtgtgggt gaacgggccg gtgatagtcg 120 gtgccggccc gtcggggttg gccg 144 <210> SEQ ID NO 340 <211> LENGTH: 607 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 340 ggcaaagata agtcctatgg cgacttgaaa tctatcttcc taatccattc catcgaccag 60 ctcgacgtgg aagaacaaga actgggaaga tactttggct atgcttccat cccagaagca 120 cgtgatctgt tcgcaaaatt tgtagtggct aagatgcgag aagaagccaa ggcattacag 180 gttgatctaa agccattctt ctctgatgat cgagatctgt ataatttcag gtttccggat 240 gctgaagcct tcagcctcat ttcctctcct actctacata ttgaggaacc tgtgtccact 300 cagattctac agatcactct cccaactgat caagctagct cctccttctc cgaattaaaa 360 gcagaaatgg agaaatttct cactgaggag attgccaaga tgcatgcagc tgacaaagca 420 gtgcatgatg agatcgctga taaaatcgaa gcaatgcaca aggcccacac agagttgctg 480 gccaatatgc aaaaggagat gcccaaagtc atctctgaca ccgtgacaaa acagctcgat 540 accttcatca acactcagtt gaaaactgag acggaaaact gctccggaac agctgtctca 600 cttgaag 607 <210> SEQ ID NO 341 <211> LENGTH: 615 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 341 cgagagggat gggttgggcc aacctatggt ctaccggttg ttatgccaat agcagcgccg 60 ggcagctaag ttggtatgga agaactgctg cgcagcggga aatccttctc tatacaagtt 120 ctcggacgag gtttttgaac agaacttcga taggcgagag gtgtaagcac cgcgaggtgt 180 gaagcgatct cgtactaaac gaaaggactt tcaactctta tgttatgggg tctcgaagac 240 tgaatgtagc tgccaaccct agccctagtc agaaagctaa gctgaaatga gaaatggatt 300 ttcgaataaa atgaaaataa taaggtaagc ttcatagccc cttgactagt actagaaagg 360 tccttagacc gcagcttact aagcgctggt tctatccagg tgggaatagt gaaagaaaga 420 gaaggggaag aaaaaaaaaa aaaaaaacct cgaggggggg cccggtaccc aattccccct 480 atagtgatcc tattacaatt cactgggccg tcgttttaca acgtcgtgac tgggaaaacc 540 tggcgttacc caacttaatc cccttgcagc acatcccctt tccccactgg cgtatagcaa 600 aaagccccac cgatc 615 <210> SEQ ID NO 342 <211> LENGTH: 515 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 342 ctctctctcc tctctctctc tctctctctc tctctctcat ggctggtcta caatacaact 60 tctttccaac tgacctcttg taccctctcc agccaccggc ggcggccgcc acggccaacg 120 gcggcgcaga cggccccgta cggcaggttt ctttggtgaa gacatggaat tccgacaaat 180 cggaggattt gaagattaat tccgcgaata gtaagggcaa gatggtcaaa gcacttcctt 240 cttcatcggt agcttattat cctatcgttc ataagaataa ttgatttttt ttttcttttc 300 tttttggaat atatatttat gatggtgcaa aataatgtat tttgtctgag attattgggc 360 gtgatataga atttcaatta atgtagtatg tcgatttttc gacagagtat gtaacattag 420 aaaggcctat gattctatga aatttggact aggcttctca tatctaatgg atcatatgta 480 ctttgtgaaa tactccattc gtcttaaaaa agaca 515 <210> SEQ ID NO 343 <211> LENGTH: 512 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 343 caaaatctgt gggacagaaa gttttgagga tccatttgga gtactatgat tcgagtcaag 60 aaacaaggga gctctcatct gctacagtta ctacaaaaga gcgtaaatca agatccgtta 120 gctatgggat atttgcagga gcagttgctg tgacgagcat cagtgtgttg gtctacttga 180 agcgctcaaa agaatgatgc accagctgaa tatgtactat tttgataata aatgttcata 240 tactccatag ttttcaacat tttgtaggcg ttaggataaa agtgcagtaa tgcaaggcca 300 tacacaaaac ctgaattatt ttgtatcatc ttttaatgta aatgaaaaac tgtagtccag 360 ataagtccta gtacaaggaa atacttaatt gccctttggg atatctataa ctcttgagga 420 gttgtgtgaa ctctttttgg gttgactgga tccaaaatta actaaagaaa gaatgttacc 480 atggttctct ctttaaaaaa aaaaaaaaaa aa 512 <210> SEQ ID NO 344 <211> LENGTH: 436 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 344 gccgctcgtg cctttgtttt agatatggtt ttatcagcgg ggcactagcg acgacctccg 60 ggaggtcgaa ggtgatcccc tcgaccgagg ggaaggcctt aaggaggcgg ctgagcatca 120 tgatgaaagg ggccatctta tccctcacaa agaggcggga gagcgtgttg tcggagtagt 180 ggccgtcgcc ggttttctcg aaaaggccgt ggtggatgag gaaccgcatg atgtggcaga 240 ggtggtcgtc agggcacccc acggtggtgg agagcgagga ggagcggccg tgtttctcga 300 gggcctcttg aagaagcttt tgtccaatca ttttacatta ttgaaatgct tatctcttgt 360 gaacagtatt actaataaga ataataagtg ataaaatatt aaaacaaatt atcttaaaaa 420 aaaaaaaaaa aaaaaa 436 <210> SEQ ID NO 345 <211> LENGTH: 105 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(105) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 345 ggggggtnct ctganntcnn nctcctaacg gccgagnncc accgcggtgg cgtgccgctc 60 tataactagt ggatcccccg ggctgcncga attcggcacn ancga 105 <210> SEQ ID NO 346 <211> LENGTH: 613 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 346 ggtacccttg ccactgccag cttaaataaa ggtggtatgt ggtgtgttcc tgtatcccca 60 gttaatcttg ctgtttataa acctaagggg actagtggta ctttggaatt taatgaagct 120 tttgttagta aaaatcataa ttggcttcat tacatgtcca cttgcacagc ttactggcgc 180 ggaacactca cttatgagtt aagagttact tataaggatc gcagttttgc tgttgcaaat 240 ttgtgtgctt tctataccac tcaaatggaa ggactctttg gtttctctga taaagctatt 300 ggagatacgg gaattacttc cgtttgtggg gattgttttt ctgttaggat ttctgtccct 360 tttgttactc ccactctctg gttgcgaacc tatcgcaata ttttcgatat gcaaacatct 420 tgcaatggtg cattgtattt tggtttgcct cttaaaggtg ttgcttctgt gcaactatgg 480 gttcgttgct gagagtgact tttcctttga gcgctttaga gtttctcaaa gctgaatata 540 tttaattttc ttcctttagt ttcttttgtg cagttttctt ttgaactggg tttgaatttc 600 gtgtctttgg acc 613 <210> SEQ ID NO 347 <211> LENGTH: 429 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 347 ctccaaagct ctctgtaata agaatccaca gtggtatcgt aaccgccgtt cgctaacgtg 60 cgccgctgag ttagctccga ttttcacatg gcgatctctc tgcaattctg ccgcatctca 120 acgcgcgcgg aaattccgct gccagagacc aggttgtccc ggcggtggag gccgtcctct 180 ctccggtgct ccgccaccgc ggaaggcgcg tcgtcctccg ccgttgccgc tgaatccggc 240 gaattcgacg cgaaggtttt ccgtcatgac ctgacgagga gtgggaatta caatccggaa 300 gggggtttgg gcataaggaa agagactctc gagcggatga gccaggaatt tacgagtgga 360 cgttgtaaag acattggaag gaaaacggtt atcagtacag agggggggga aggtgacagt 420 ggaagcttg 429 <210> SEQ ID NO 348 <211> LENGTH: 370 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 348 cacttacaga atctgagatt gttggaagaa ggagttctga tactgaacgc caaaatgatg 60 ccatgactgt ccaacgtgca tttgctaata ctaaggatcc agcattttct gcttctaggt 120 cacattcttc acagttgcta gcagcatctc ttggtgaagg agatgactat ttgccaccag 180 attttcctca gctgctaatc actccaagga tgttacctct gagagtagct tccatgttaa 240 gatactagta cccacggtgc tcgataaagc aggggggcgc agctccttgc gggtgctata 300 ttagtgttat ccaggacttg gatatcagat cgcattgctt tctttaaatg gggacaaccg 360 taaaatatgt 370 <210> SEQ ID NO 349 <211> LENGTH: 595 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 349 tgagatctgc cctccgctcc gccctacgcg gcggcgcatc caccccccgc gtctcaccag 60 cttccaggcg ctctttctcc gcttcatccc atcacgacgc agctgctgag gctgctgagg 120 ctgcgaagtg ggagaagata acttatttgg gaattgcggc atgcactact ctcgctgtcg 180 ttatcctatc caagggccac gcccattacg acgagcctcc tgcatatcct tatttacata 240 tccgcaataa ggagtttcct tggggtccag atggtctatt cgaggtaaag gatcaccatt 300 gagtcattaa gccaacgagc aagaaggccg ttggaataat tggtgttata agttcgtttc 360 tttcttgtac acatttgaac tcggtatgtt gtgtgagaat tgacgatttc tggaacccct 420 cagatttgga atgcggtttg gatgtttcct tcattatgag aatttgtatt ccatcttttc 480 gcccttgaag caaacttaat tgaggaataa attatcttaa atcaaaaaaa aaaaaaaaaa 540 actccagggg gggcccgggt accaattcgc cccatagtga atcttattac aattc 595 <210> SEQ ID NO 350 <211> LENGTH: 271 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 350 ctcaatcgaa atcaaaatgg ccattaatcc ttcccatatc aactccaaaa cgagtttccc 60 tctcaaaaca agatctgatc tgagccgttc ttcttcagcg cgttgcatgc caactgccgc 120 cgctgccgtc ttccccacta tcgccaccgc cgcccaaagt cagccgtatt gggccgccat 180 cgtggccgac atagacagat acctgaagaa atccatccca ataaggccgc ggagactgtt 240 ttcgggccca tgcaccacct cacctttgcc g 271 <210> SEQ ID NO 351 <211> LENGTH: 512 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 351 tgtttctaga atccgcagtt ttccgaatat agtttggtta ttgttcatgg gtgtcttttg 60 attttgactt tgaatactaa tccttgtttt gctcctcttt cttttttttt tatagatcaa 120 ttagcctttt cctggtgatt tcgccaaact tcagcttact gaatgcaact aattctgtat 180 ttgctttgcg atttgtctga gttagtaaaa ttaggggttt tttaagtttg attatgggtt 240 ttctgatgtt tagcgcgggc agtggtgata tttttctttt agctggtagt cagattaagg 300 gtttattctg atttattttg ctttaatacc gtctatgtgt gtgttatgtt tttcaattac 360 agggccaaat ttgaagtcgt ttttggagtt aattcttaac tgaacgatgg atgactgggg 420 taatttttcc ctccgctcaa tctgatagct ggtttcaaca tttttttttt ggtaatgaat 480 tggcattatc ttggtttaat ttccctgcat ta 512 <210> SEQ ID NO 352 <211> LENGTH: 578 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 352 ctaaacctgg gcgttgcttc atccttgttc atagctagca cgaatttcac atgcgctacc 60 atttaatttc ttggattgcg gaatggtcgg tggaatgagc gtcgcttgaa tcatctccgt 120 cctcttcgcc gtcgtgcttt tgagtgttga ggtgctggag ctttcaaggg agatcgtcgc 180 ttgccctgct gccaagtgtt gccactgctc agcctcgcgt ccgctaccaa gccctgctgc 240 cgagcctcgc tctcacccaa ccactgagag tcacacgccc tgccagatca aggacattag 300 ttatcatggt gaatgcgatc aaaggattgt acatctcatg cgacatccca atggcgcagt 360 ttcatcatca acttgaaatg cttcacaacc caccggcgca gaaagttcat aatacaagtt 420 attggataac actcatcttt tcgtgagggc agatatgggt ggtacgataa aagctgccat 480 cgctgaattc agaagaaaag aattccttcg aacaaaccca gtaactaaat tttatggttt 540 taatttaaac ctactcttgc taaggtctaa gaatgttc 578 <210> SEQ ID NO 353 <211> LENGTH: 515 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 353 tcttactgca aaagtaagtt attttgctca tattagagtc gaaatgcatc gaaacgtatg 60 attcatcgat gtttttacct ttctcgggtg gcagattcaa catccctaca tccaagatgt 120 gtatggttgg ggacagattg gacactgata ttttattcgg actaaacgct ggctgtagaa 180 ctcttcttgt attttcaggt atatgccacc tcaaataatt ctgttttaac tgctttttta 240 ccatcacatg tgaaattgtg gggttgatgg cacgtgctgc aggtgtgaca aaggaatcag 300 atcttcaaga tccatcaaac cggattcgac cggactacta cacgacccag ctgtccgaca 360 tctaacatta tctaatcact aatcataatt atctaacacc gtgttgaaag gtgattggta 420 catttgaatt aggccatttc tggagacgtt gatctattcg gattgcagaa attggaattg 480 gaaaccagaa gaaaataaaa attcatgttt gattt 515 <210> SEQ ID NO 354 <211> LENGTH: 476 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 354 agaaagtgtt gcatgcctag gagaagaaag agaggaagca cagagctcta tatcttccct 60 tcaaactatc aactgcagca gccaaccaaa cccctcatca tctcaaggta acaaacctaa 120 aactcatgaa caagcatgct tactttcatt attaagtaaa gagcccaaac ctgtatttca 180 atcctagaat ctaacagaag ctcaagaaga cacatactta tagattttgg aaaagaacta 240 gaatctgaga aagaagttta aaacagaaac caacacacaa caacactaca gaattcatta 300 gcacatgcct tagatagaaa tctgaaaatt ccataatcaa ctatcagtca actattacgc 360 aagcaagatg cttcaaaact ttaaccttta gctaagaaac aacaagtacg catctactta 420 gtcccactca gaaatcacag agaccagctt agatccccac ggaactattt tctcct 476 <210> SEQ ID NO 355 <211> LENGTH: 344 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 355 caagaattta ctctaataaa atataaggtt aattgtctaa aagtatatga attttgttag 60 tttatggaat tacaaacgaa cttttaattt ggggtacaaa tatatgactt attgattctt 120 tatgatttag cactaacgtg gcatttaaaa tgcttacggc gaaaacacag atacgacata 180 accaaatttt gatttgaaat aaggaacttt taacccttaa ttatatttct aacttgtcaa 240 attttaaaga aaacggccgc attttaagga atggtttcct ctatactaac aatcgtgttc 300 caattgtgta ccaaatatta atttttatta cgttttataa tatt 344 <210> SEQ ID NO 356 <211> LENGTH: 602 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 356 gagaacttga atatgtgaaa agaatatttt acgccagtga ggatgttaga gggaaacagc 60 tccatgatat tgctgtgcgg atgctgtcta gattggccaa cagatcagat cttcaggagg 120 tgcagaatca tatcatgagt tttttcactg aaaccaattc tgaaaggcct gggaactacg 180 tcgaatccag aaaagagttg ccattaagaa accaagaagg cagcaatggc attggtgggt 240 ccagccaagg agctgcatgg atgaagcctg tttatccagc aaaggctcct ctcttgggcg 300 atccagtcag tttaatccac gactttgatg tcaataagaa tgataaatat gctgtgaaca 360 tggatcttca accaaaatcc cgaaaggaac ctatatttga tgaactcgac agcattgtga 420 gaatcaaaat ggctgaggct aaaatgttcc aagcacggcg cagaagatgc aagaaaggaa 480 tccgaagctc tgaaacgcat tgcagtgttc caaaagtgaa agagtccaag aagataccca 540 agccggatcc cccgcttcgt ttaactgaag ctgaagagat gcgaaagcag aaggtggaag 600 aa 602 <210> SEQ ID NO 357 <211> LENGTH: 624 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 357 gttagattat ctttatttat ttatttttaa tttattttta ctataatatt atctttgatt 60 attctaacct tttcagtttt actattctat tatgctttcg caatatctag gtgcactttt 120 tttggagcaa tatatgcttt taataacaca ttttcacacc aaacggggtg atatagtctt 180 ttcatatgct ttaaaatatt catcccataa taattgtagg ccatttttca ttattatatg 240 tcgttttccc ttgtctagtg tccacctata cgctgatttt atcaagccga ctatagcatt 300 atagctaaaa acatatctta tgtttctttg cttcgaatct catgtgatcc acattataat 360 aaagagacaa tcccaaatat aaccactatt ataaaataaa agtaaatttt aatcatacat 420 aaaaaatagg taattttttg ccttttatgt ttttttaatg aaaatataag atcatcataa 480 ttttacttca actacgaaac taaatgtgtg tttgtactat aattaaacta ggaaataaaa 540 attccctttg atttgtggtc agatctcatc aataatctca atttcatccg actgaatcct 600 gttcattttt ccctatctaa aaca 624 <210> SEQ ID NO 358 <211> LENGTH: 612 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 358 gttttttttt tttttttttt tttcaataat tgcaaatttt atttatctta atcatctgca 60 atacatggct aatcagattg attccgagaa cagaagcaat gagattgcga ttaatcactc 120 taggtactga ataaacggat gtgtgaggct agtggtacct ctaaaaggac atctcatgat 180 catgaggctc gagctatgat tagagaaaca tctggatcct tcgagatatc gttcttacag 240 tgctgaagag aagcttggta accactgctt aaaataagtt tggctatcca tttccgcagg 300 agacaaggct cctagaggtg tgacagttat atatccttcc cgaagggagc agtaatccgt 360 gtcatcatct gcaacttgtg atccctttac ttctcttttg aatagacgtt catgtttcaa 420 atttgaagac tcaggttgag aaactggtga tgaatttgtc tccattgtca tagttgacaa 480 aattttccct ccttcaaatt cagaattaac ttgtctccat cccattttcc cttaatcttg 540 ccctgattgg ttagtcaata accttatgat ccccacttct gttggccatc cacaatgaaa 600 aaacgtgctg gg 612 <210> SEQ ID NO 359 <211> LENGTH: 158 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 359 ctccaaccta taagtacctt tggtcacact gctatataga agttttctat tgttttttaa 60 ttgcttagga tagtttcaag aaattcaatt ttctttgcca aatttcaatt tttaccagtt 120 atatacattt ttattcgata aaaaaaaaaa aaaaaaaa 158 <210> SEQ ID NO 360 <211> LENGTH: 372 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 360 ctgccctcga gaacatggtc gccgctgcta agctcctccg caccaacctt gccagtgcca 60 aataagctca ctcttattcc ctccgaattt agagatatta tttttctgat aaactgaata 120 atcatggttc ttcttgatga aagaagaaga aaagaaagat gattggttag gtgaaggtcg 180 ccagcggggc gtttgtgttt ttgggcttgt ttatttttct ttccttgtgc ttttatttta 240 aaatattaat gttccttttt ctaattggag tacgatcacc ctgtgaccgg aacttccaat 300 ttatttgtat tcggtgttcg ttggaaatca aagaaattca tgtttcctat tcaaaaaaaa 360 aaaaaaaaaa aa 372 <210> SEQ ID NO 361 <211> LENGTH: 380 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 361 ggacttccga gctagtaggg tgggtgaaag atgtcttcca gcactgtgca cctagctggg 60 atagggatgc tctgataagg gaactcgact ttgtgagtcg aattttccgt gggagtgaag 120 atccgagagg caggaaattg ttctggaagt gtgaggagct tattgagaaa ttgaaaagtg 180 gggttgctga acctgtggct tgcaaaataa tcttgatttt ctttcaagag ctcgaggcag 240 acccctcaaa aaaccaagaa agcgaagatg gcaggatgat atccccacag gaggcgttca 300 acaaaatagc tgacgtggta caagaagcag tgaaaaacat ggacatccct accacaaaca 360 caagatgcgg atggtaaaaa 380 <210> SEQ ID NO 362 <211> LENGTH: 416 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 362 tgagtgagcg tagtctccaa gctttctttt ctagttctga gctgagatat aaatagtatt 60 ctgtaataga caatggtttg ggttgtgaat gaatgaaaca ctattttctc tatgaaatac 120 atacaattcc aatttctaca agatgaagga cgaggaaggg agatggagga aattgggttt 180 gctgcgtttg cgtccttgtg agagggagat gagtagaagt cgtaagggtg aatgagagag 240 aatgaaagga catcgtttaa gtgtaatgac gtcgtttaat atgccggtcg gaaattttgg 300 aaaatcacag gtcagttttc tgtctggcac gcacgcgcca agtaaatttc gatttggggg 360 aaaaagtgaa aattgaatcc gatggaaagt ttgtgaatta tgaaaaaaaa aaaaaa 416 <210> SEQ ID NO 363 <211> LENGTH: 146 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 363 aaaaaattca ataagcaaat atgtaaactt ggccacttgt ctcaaaccaa aactagcatg 60 tattgttgag gtagctagct ttcaattgat atgcatatca ataattatat ggaatatgca 120 ttttaaataa aaaaaaaaaa aaaaaa 146 <210> SEQ ID NO 364 <211> LENGTH: 675 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 364 tgagcgtggt ggcatgggct actctgtttc tggcgatcat gagaacgctg tttccccagc 60 gttctttcga cttctgcaac cgcctcgtct ccacggccca cgccctcctg gccgtcgtct 120 tggcctcgca ttcggttctc gattggcgct gccccgtctg ccctcccgct tcgaaatctt 180 ctccgaagca gatgcagacg ctggcgataa ccatgggata tttaatatat gatttaattt 240 gctgccaatt tgagaagcaa gtgaagctgg acaacactgt tcatcatcta gtcagcatta 300 ttgggctcat agctgggctt gcttatcaaa ggtgtggagc ttcttaaaga gcttggatac 360 aagggcaccg acctcaattt ggctgctgat gtggcttttg cagttatctt ctcaattgca 420 agaatgatag gcgggccata tcttacttat gttacactca ctgctcataa atccatttct 480 aattaaggca atggctttta ggactgcaac ttgtgaattg gatattggtt ctaccagatg 540 tgaaggatga tctttacaat tttaggaaca aggtctcaat ctttcaaaac accataaaaa 600 tgtattattc atattgttcc aatcatagaa taggaattga ttagttttta ttccttaatt 660 tataccccaa ttctc 675 <210> SEQ ID NO 365 <211> LENGTH: 631 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 365 tttgaatctc tttgatttgg gaccacattt taatagattt caagctattt gtggtcactt 60 atcagggtat tcaggtgacc ttgttgttag ctggatgatc agtgcatctg ctttaaccaa 120 cgggcgttgc tatattttac ccatttatga caatcatgat ctctcagaag tatcagaaga 180 aaagctgata caatgtaaat atcctgagaa ggaattgtct ttagttagat ttggtaaggt 240 acatatacct ttttgctctt ggtttggttc ttatactaga acttcttatc ccagactact 300 ttttgccttt ccaggcggta tttctgggcc tgctggagaa actattcatg taaatattca 360 tgttgaagct atagttaatt ttgcaggtat gggtcaaaat cttcttaagc ctattttgaa 420 ggctgaaggt cctgatcctt tttcttttca tttgtatttt gcacactgtg gtacccttgc 480 cactgcagct taaataaagg tggtaatgtg gtgtgttcct gtatccccag ttaatcttgc 540 tgtttataac ctaaggggac agtggtacct tggaatttaa tgaacctttt gttattaaaa 600 atcataattg ggttcataca tttccacctg c 631 <210> SEQ ID NO 366 <211> LENGTH: 637 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 366 ccgagttcct caaggctgtg aatgggaact tccgcaatct ttcgtgcctt aacaaacaga 60 agctgttata cgctccgatg ggagatttcc tgattctcca accggacgac aaattctctc 120 cgagccacga cctcctcccc tcgggaagcg gcctctactt gctgacatgt cgagacgagg 180 atgctgacat ggcagagaag cagatccgag ccgcacaaac tatatttctg aactcccctc 240 acccactaga gatcttgagt gaccgatccg cctacggatc aggaggctct atccaacggg 300 accacgacat gaactcatac tacaaatcag ttcgaaacgt tatccagctc gagctcaaac 360 gaataagaaa ggctaggaga gagaggcgga agaaagcatg gtggcccctc attgccccgg 420 gcgggatcaa tgccgggatc atcgtcactc ggggaagttc gggcagcttg ctccggcagg 480 gccgggtgag tttcccggaa ccatccaaac gggacgggga gttcgttaaa accggtttag 540 taggttagtc gcttctcaac acatgcattt gcttgtggtg gtgctgtttc caccaagatt 600 tttgatattg ggaaccttaa tctgatcaaa tttattt 637 <210> SEQ ID NO 367 <211> LENGTH: 621 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 367 cgacttcatc ggaaactctc cacacacaca ctctctctct ctaacaatgg cgatgaaggt 60 tttctgtggt cttttcgtcg cgctctgtct acttgtacct ttgatttccg ccgcgtcaac 120 tcccgtcaag tactgcaata agaaggctaa ctatattgtc aaggtcaatg gactcgacat 180 agatccgtat ccgattacga gaagcaaaga gaccttcgca atttctgcaa ctacagctga 240 gccaatatct ggcgggaaac tcgtggtcga tgtttcatac tttgggtggc acatccacag 300 cgaggatcac gatctttgtg aagagacttc atgcccagtt gctgttggag atttcatcgt 360 ttctcacacc caggaattac ctggaatcac cccacctggt tcttacacac tgaagttgac 420 aatgaaggat gggaacaata aagaactatc atgcattact ttcgacttca gcatcggttt 480 ctttgcagaa gaaaacttgg ctgttatgta aatgttggag aatgtttctc cactcctata 540 atttcccatc tttagctaat taatgtttag agacttatct tatcgtatgc catgactctg 600 aaccttttct ccctccaatt a 621 <210> SEQ ID NO 368 <211> LENGTH: 337 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 368 aatcttctac tggttcccac actctacgat ccttcctcat gatcaattaa tactctttca 60 tttgctcctt taaataaaga gtgcatatac gtatatgata tatatacaaa gacgcatgtg 120 tatgtatgtc tatatgtagc tctgggctat gaatatagaa attatgtaac ttttcttttt 180 ttcgttttta attcaataag caaatatata tatgtaacct tgctcacttg tctcaaacca 240 aaataagcat gtattgctga ggtagctagc tttcaattga tatgtatatc aataattata 300 tggaatatgc attttaaata aaaaaaaaaa aaaaaaa 337 <210> SEQ ID NO 369 <211> LENGTH: 482 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 369 cttctttgcc aatttctcca ttgttgggat gaatgtcagc ttaatgtgga attcagttgg 60 attctaccag atcgcaaaac taactatgat acctgtctcc tgcttgttgg aagttgtgtt 120 cgacaagatc cgatattcga gagacacaaa gcttagcatc ttaattgttc tccttggtgc 180 tgctgtctgc acaattactg atgtgagtgt taatgccaaa ggatttgctg ctgcatttat 240 cgcagtctgg agtacagcac tgcaacagta ttatgttcat tatcttcaaa ggaagtattc 300 tcttacatca ttcaatctac tggggcacac agcaccagcc caggctggat cactattgtt 360 ggtaggcccg ctactggact attggttgac aagcaagaga atcgacgagt tccaatttca 420 tttaccatct atggtggtca tgatcctatc atggactatt ggcaggtggg gaaccgaaat 480 ct 482 <210> SEQ ID NO 370 <211> LENGTH: 502 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 370 tctcaattgt gaactctaac aatggcgatg aaggtttcct gtggtctttt cgtcgcactg 60 tgtctacttg tacctttgat ttccgccgcg tcaactcccg ttcagtactg caataagaag 120 gctaattata ttgtcaaggt aaatggactc gacatagacc catacccgat taccagaagc 180 aaagagacct tcgcaatttc tgcaactact gctgagccaa tatctggtgg gaaactcgtg 240 gttgatgttt cctactttgg atggcacatc cacagtgagg atcacgatct ttgtgaagag 300 acttcatgtc cagttgccgt tggagatttc atcgtctctc acacccagga attacctgga 360 atcaccccac ctggttctta cacactgaaa ttgacaatga aggatgggaa caataaagaa 420 ctatcatgca ttactttcga cttcagcatc ggtttctttg cagaagacga gaacttggct 480 ggtatgtaga tgttggagaa tg 502 <210> SEQ ID NO 371 <211> LENGTH: 623 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(623) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 371 gacacattga atgatttgga ttcacttgat gaatttgatg gtatgaacag tttcctttct 60 gctggtggat caaattcttc agtttctgat gcacataggt cattctatga tatggatgag 120 gttgaggatc aagttttctc tcctcctttg ctaatggata ctgcactttt ggcagattcc 180 tatgaggatt tgctcgctcc cttatcagag actgaagcag ctttgatgga gcattgacag 240 taaacattaa gaacttgctg cttatggatt caagaaatat atttcgctag ctgagtgcat 300 ttgctttctc atctcaaccg gagattcaac cctgatgtgg tacttgtatg attctgtcta 360 ctcctacttt gttttgcata tatgtacgtg aaaatttctc aactgaagga ggattgctga 420 tttggcttga aacatactgg agtgtaacta ttcatggcta cattatttag gtcttaagaa 480 gcagaaatgt gctctgggca aagattctgc cggtttataa agaacccgtt gtcattanaa 540 ttgtaaatat ttgtcctgac tgattcgtac tttacactaa tgcattgatt ggtagatatc 600 tgaacagagc acgggatgaa att 623 <210> SEQ ID NO 372 <211> LENGTH: 344 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 372 cgaagagact cctctatccc cggatctagc tccgtctcct atttagatta tgttacggtt 60 ggtattactt taattttgtt tcaataatcc ttttaattta aattttagtc gttatgaaga 120 agatatacta gttataataa gcattttgca ccgagctcaa gctttttgga gaaaccagct 180 atcctctacg ctacgcgatg tgaagatgga accagtggat tttagagaga gtttggatta 240 tgtttgtatg gttttatgta tttgaatgca gaagttttta attatttatg ttgtgatcaa 300 ggtgtaattt tgttgttgat gcctgtgttg ttgccttttg catt 344 <210> SEQ ID NO 373 <211> LENGTH: 639 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 373 ctagtctcga gttttttttt tttttttttt atccaagcga atgacaaatt tataatataa 60 gcagttgaat aaatttatta tcattcaaaa catacatgta aaaactgtaa ggccgttatt 120 tgttataaat tttatttagt ccaatcctta gcacgaacta taatatacgc cgaggctcac 180 atagcactac taaaggtagc tcggtgcccc gggtatatac tgggtcaaca agcccgacga 240 cgaccggatt ccgatgattg ggaacgtcag ggttcctccc ggaggatcga aggtgcacga 300 ggagggcgga aacgtcactc taagatggca aatctccggg ttggttagca aaatatccgt 360 agggctaaag ggagaaagtg taaattcctg cattacttgt tgtggttgat ttcaccactc 420 tttcaaagac aaaaattcca caaaacaaac tcaactttcg cacgtgggac tattggcgta 480 cgttcttgca tttgatatgg gaagtatttg tacgtgtaat aactcctgca agaactcatt 540 gattccactg tttgaactgc agtttgtgtg agtttttaga gagagaaaaa ccaagaaaaa 600 ttgtgagaga aaaccatttt tttggtttgt gctcgtgcc 639 <210> SEQ ID NO 374 <211> LENGTH: 617 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 374 atcctcagtc attgcaatgg acactatatg ccacagtgca aataacgatt caatggaaag 60 cgttgagaac tatcctggtg attttgatga catacatatg ccgtctacat caggaatcaa 120 gaacacagat cctgttgagg catcagagtt gaattacagt aatcaagcac agcagagtac 180 ctgccctgct gttgggagaa gtactggtga aattggagtt agtagtacga atgaagaaga 240 agttgtaaac acagatactg cgactgcaca tgggagggat ggtcccagct tggggatcag 300 tggtggaagt gttggcatgg gtgctagcca tgaagctgaa attcatggga ttgatgcttc 360 tatttacaga actgacagtg ttgttggtga tgtagaacct atcactgaaa tgactgataa 420 tcaaggccaa acaggtgaat ttggactaga tccacggctg atgggtgatt tggtccccga 480 ggaagtggat acagaggatc ctcatggtga tagtcaagat tgatgtctcg gtctgtatta 540 gggcagatag tgggtcaaaa gtttatgggt tcactaaggc agaatccgtt gaaagtggag 600 aaaagacaat tttttgc 617 <210> SEQ ID NO 375 <211> LENGTH: 375 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 375 gatttccgcc gcgtcaactc ccgttcagta ctgcaataag aaggctaatt atattgtcaa 60 ggtaaatgga ctcgacatag acccataccc gattaccaga agcaaagaga ccttcgcaat 120 ttctgcaact actgctgagc caatatctgg tgggaaactc gtggttgatg tttcctactt 180 tggatggcac atccacagtg aggatcacga tcttttgtga agagacttca tgtccagttg 240 ccgttggaga tttcatcgtc tctcacaccc aggaattacc tggaatcacc ccacctggtt 300 cttacacact gaaattgaca atgaaaggat gggaacaata aagaactatc atgcattact 360 ttcgacttca gcatc 375 <210> SEQ ID NO 376 <211> LENGTH: 277 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 376 cgaaattcaa ggctataaga aaacacttct gggaaagcca tagtgtgagt cacagtttga 60 cgactagtgg tgtgtgttct cattcattca cgtcaaaatt agacagcgaa gagaatgaaa 120 ttattcgaac aaatgatgaa tcaagcatta gtttgtagac actaatttag gtggcatact 180 acactccttc atacattact tgatctctat ctcgttctat actacttatg ttgtttctta 240 aggaaagtag tttcgtaaaa aaaaaaaaaa aaaaaaa 277 <210> SEQ ID NO 377 <211> LENGTH: 419 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 377 ggaaagctgg cctattgaag aaacagcaac aatatgatgc ctcatcatct aaaagatcaa 60 aaggtgaaaa ccagagtaaa tccgaagaca atccttcacc cggctttcac aaagttgtag 120 aatctgatga tgagacatgt gaaacaaatg tcttagcaaa ggatgatgtg gagaatcgtg 180 tggccaagga agagtcggaa gtattgatca agaaaacgga gagcagccac acccaagaag 240 atgaaagaaa tggtaactta tgaacgcatg atcttggttt tttgatattt tgaaatgaga 300 ttttgtgtgc atagcatctt ttgatggatt gccaagaact atgattatgt atatcatttt 360 ctcgacaaga ttcaatggct aggatggaac tcattcgata aaaaaaaaaa aaaaaaaaa 419 <210> SEQ ID NO 378 <211> LENGTH: 450 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 378 aaaatttcaa aaaatatgaa tcatacttgg ttccatcaaa atattccttc aagctcatcc 60 gatgatgagg tagaagaaca attgattatt caccaaattt tagccaacaa ccaaatgtat 120 gccgactata tgcagcaaca acaaactgag gctacacacg gaggctcagt tataggacat 180 cgaaccattc gccgtgatcg tgaaggagca gatgctattc tcttcaacga ctatttctct 240 gaatatctaa cgtataatga agaacacttc agacgacgtt atcggatggt cgacctttat 300 ttttgcgtat agctgatgcc gtaaagaatc atgatcacta ctttcaacaa agaagaaacg 360 catctggaaa attagaaatt gagccggaaa ctggttcata tattctcggg gctacttttc 420 ttagcatcgt ggccgatttt cagattagca 450 <210> SEQ ID NO 379 <211> LENGTH: 698 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 379 ttcatcaccg gtaaccgccg caagaacgaa atggcaccct agcatatgca tatccaccct 60 tcggccacca aatgaacggc ggcgcggcgc agtcgctccc agaacccgaa gactactccg 120 ccgcagcaac cctaatcccc ttcccccgcc cgctccccct gttacgcgga ccaatcaaag 180 ccggtccgct cgacgatccg tcttccggtc catacctcct cgcgttcaaa aaccgccgcg 240 cctgggccgc cgcgtaccgg aattgccgcg cccaaattat tcagcagtgc gaatccgggg 300 cgcgggtcgg gtgctctatt tcagcttcta gcaaatgcaa acccccatgg tggaaagttg 360 ttctaggagc ttattccaaa caggacttta gagagaggga gaagtgcgaa gagattgaga 420 tggaagcctg tttcgccgct gccaaggaaa gatgcggggg cttcgcgaac aaaagtgtga 480 gccggcgttt aagaatgcga gaattgaaac gagtggattt gaatccggag tggtggattg 540 gaaggaattt ttaagttgat ttcacggtct cttctgcaat ggaaaaaatt acggggttgg 600 attttggggt tgaataaatc ttggggtgaa tttaggcaaa atttgaggtt actactccta 660 aaaggaatga ttattgggtt tgaatatgtt gatattga 698 <210> SEQ ID NO 380 <211> LENGTH: 635 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 380 cgcatcatca tatcatattc cgacatggcg aagcctcaac aaacaccggt cttcacctca 60 acatacgacg ccggcgaccg ctacgacgac actacggcgg atgccggcgg ctgcggctgc 120 tatttccgtc ggttctgctt cgggcgggac gaagaccaga gctatagctc ccttcttcac 180 gaggacggcg gagccccgcc gcagccggag tcgtggttcg tagcgaaact aaagaagctg 240 agagagttgt cggaactcgt ggcggggccg aaatggaaga acttgattag gaaaatgggc 300 agaatttgca attccaagaa gcagaataag accgccgtgg agttccagta ctcgccggaa 360 agctatgcac tcaacttcgc cggcgccggc catgaagagg acggggaatt attgcacagt 420 ttctcgacga agttcgcggc cggtttttcc aataatgatc ggcaaaagtc gtgattgtcg 480 tattagtgat tgatattatt tatttattta ttcttttgga attctcggta ccattaatgt 540 tttgatatat taattttatt gattttttta ttaaattatt tcgtaatcca gtaacattta 600 ttataacata tatttaccga taattaacat gtttt 635 <210> SEQ ID NO 381 <211> LENGTH: 319 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(319) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 381 ctcgtgccgc aacgtctcac caattagatg taagaagaat ctgccgaaaa tgcaaagatg 60 aaaaaaaaaa aaaaaaaaag ttggttgcag ttaaattaat taatcanaag tgaggggaac 120 tagaagtggc aagtacaaga atcttgaaga atatgctctc tctctacctt ctcaaaattt 180 gtgtttcgtt gtattcatgt ggatctttat ttttatttta ttttttttat cttggatttg 240 tgaactctta tagagatttc tgtattaact ttggaataaa atcaaaccat gtggttgcct 300 taaaaaaaaa aaaaaaaaa 319 <210> SEQ ID NO 382 <211> LENGTH: 642 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 382 aaaaatctcc accaacatag ctgcaccctt agcccttaaa atctgcaaaa gaaagagaca 60 aataagtcat gtgaatatag gagttggtgg gatattatgc aaggccttaa gtaagaagct 120 acagcacaaa tatataccat cctacacgca gccattccca tccattccat attcctccaa 180 gttcaaatat atagagagaa attaagggag tgagagtgaa ggagctacag cagcagccta 240 aggaaaggaa agggaagagc tgagcaccat cttcccaagc tacaaccaca ctcaccatct 300 cttgtcaaag tatttcaccc aatactcaac ccttgagcat agaagcatgt aattgttttc 360 tattctagtt aaaatgcaca agcatgattt agaaactctc agttaaaaag ctcgagcaat 420 aactacacct ttcacaacca acatgctctc aactctcagt aaagcgaata tagatcgtag 480 cattaagaac tcagaaacca taatccagct attaaatcaa aaagcttaaa acaagaacct 540 catgcttata aattctccaa tcaccaatcc caagctgtta gggccttact caaaacgaga 600 gggtggtgat aagtttaact cctcaaggcg aaaccccaca aa 642 <210> SEQ ID NO 383 <211> LENGTH: 442 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 383 ctcaattgtc gtcagctttg gtttctctct tctctgtcct gcaatcttcc tccgtcgttg 60 cggggttaag accgtgatcg tgagagggct caagcaaggg ctggccacaa aacggggaac 120 cgtaaggatg atggattgac tcccgaacag aggcgagaga gggatgcgaa ggcactgcaa 180 gaaaaggcag cgaggaaagc agctcaggct gctgcaggag ggaatgcaaa tgcagagcat 240 actaaaaatc acaagaagaa atagatggtg aggatttcac tacgagaatg gtgttgatgg 300 atcagatgtt gtggttttag atttgttgtt gtgctcttga ttgttatcta gtttgagtca 360 tcattctgga actgatgaat ttgtgtacac taaggtttct aggccttgta tctgattttc 420 aatgcaatat tgtttcttga cc 442 <210> SEQ ID NO 384 <211> LENGTH: 282 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 384 gaactgccta ccaacaacaa gctttgctgg atatatcaaa gactgcttat ttttcaggat 60 tcctagatgc aggattagtt gtattatcat tatgtttttg gaaagtgcgg gtgcctgctg 120 tattgtggaa ttcatcctga tatttacctt tttctatttt aattttattc cctattgttg 180 ttttttctgt tatcgacttt gtcttttaac cgaactttct ccaaaagtta aggagtctgg 240 aatctcaaat tggatgtttt gtttaaaaaa aaaaaaaaaa aa 282 <210> SEQ ID NO 385 <211> LENGTH: 641 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 385 gcaaaatgga ttgcacgagg cgaagttgca aggcctcctc aactgctttc tgtagaagaa 60 ggattagttg tagctgctct tggcattgct ggtagaactt acaattctag actcctggat 120 ggtgcatggg ctgtccttca gcgctcatta cgccagacaa agcttcctaa tccagaaact 180 tacctggcga aaatatacgg acttgctaat ttagggaact tgccaaaggc ttttagtaca 240 ctccgagatt tcgaggcagc ttatggaaat tctgaccgtg aagatgtaga tgatctgttc 300 tctccgtttc attctttaaa acctcttgtc gtggcatgct gcaaggatgg ttataccagt 360 ttagatgcag tttattatca gctggagaac ttaagcaaag ctgaccttca atttaagtcc 420 atcgctgctc ttaattgtgt tattcttggc tgcgcaaata tttgggatgt tgatcgtgcc 480 tacctcacat tttctgccat tgaatcatct tttggactga ccccaaatat acattcatac 540 aatggcttgc tttgtgcttt tgggaacttg gcaagaaaaa taaactgtta aattgtcgaa 600 cactttgtcg gcttaggttt aaacccacta tactactttg c 641 <210> SEQ ID NO 386 <211> LENGTH: 371 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 386 aaaaaccgtg gctccaagtg cctgggcttg gctggtgata ctgagatcgc gtctgagctt 60 atgaatctca aaggtgcctt caacaatggt gtggtattta aaccggagaa cttcagagat 120 gaggatgacg acgatgacga cgccgacgcc gacgatgatg atgttgacga gcaaccggaa 180 tcatgagaag catgatctcg aaatagttca tcttcgctgt cgggtttggg ttttttgttt 240 gagtagggct accgtttagt atcgaatcgg gagaagtgtg atccataaac tcgtatcgtg 300 aattcgtgat caaatgaaat gtgctacccg tgttaagtat tgaatggttt acttaaattt 360 atgaggtgtt a 371 <210> SEQ ID NO 387 <211> LENGTH: 657 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(657) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 387 aaatattcat gttgaagcta tagttaattt tgcaggtatg ggtcaaaatc ttcttaagcc 60 tattttgagg gctgagggtc ctgatccttt ttcttttcat ttgtattttg cacactgtgg 120 tacccttgcc actgccagct taaataaagg tggtatgtgg tgtgttcctg tatccccagt 180 taatcttgct gtttataaac ctaaggggac tagtggtact ttggaattta atgaagcttt 240 tgttagtaaa aatcataatt ggcttcatta catgtccact tgcacagctt actggcgcgg 300 aacactcact tatgagttaa ganttactta taaggatcgc agttttgctg ttgcaaattt 360 gtgtgctttt tataccactc aaatggaagg actctttggt ttctctgata aagctattgg 420 agataccgga attacttccg tttgtgggga ttgtttttct gttaggattt ctgtcccttt 480 tgttactccc actctctggt tgcgaactat cgcaatattt tcgatatgca aacatcttgc 540 aatggtgcat tgtattttgg gtttgcccct taaaggtgtt gcttctgtgc aactatgggt 600 tcgtgcggaa aatgacttcc ctttgaaccc tttatatttc ccaaactgaa tttatta 657 <210> SEQ ID NO 388 <211> LENGTH: 488 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 388 agtagttacc tttaaaggaa ttgttcccat tgttaaacag gtgaatgtaa cacacaacaa 60 aattcatttg acaaaatgga aaaatataaa tatcgaatat ctactaaata acagaaattt 120 ataaccaagt agtaagtaaa ctacagaata tgtgtacatt acttctgcac ttatcttgta 180 tctgtaggca gggaagcaag tgcagattgg atcaaattcc ctaacctccc tctgaaattg 240 ctaactgtat tcgatatcgg ttcgaaattc tccaacgatt catgtcgttg cagctctacc 300 aactgccttt ccaaatatat tctgaggctc gcttctgcaa cgttgatcag gctgagcgaa 360 gcattcatat gcatgaatct tgtaaccaga aatccggcta ggacatgctg atctgccttc 420 actagctcac ccacgaaaca tggaaagata agtctcacaa agagagaatc aagggctttt 480 ttctctcg 488 <210> SEQ ID NO 389 <211> LENGTH: 618 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 389 gtcaaaacca tggttggaga taggttttga gcatctccgc ccgttttgga ctaaatatgt 60 caactactct aatgacttca ttaggaactg ccacgtattg gagtagttat cgtcaagcgc 120 agcatccacc agtgtaatac atggttggaa gaaggttgga aatcctacct acaatttata 180 gtcctttggg actattaaaa tttgccgata ttagaactaa agaaactcac gacctcccca 240 aaactgtgct atacaaaatc tcgattttgc ttccatgcct gtgtccccgt cgctcaaaag 300 gaaaaataga aagacgtttt cactagcatg ggctcgagaa ttattctctg taaagaagca 360 gttcatctat attacctttt gatcaaggac tactattttt ttgaccatca aacctatttc 420 ttgggagctt tggaagggaa taaacggtat cttggctcgg atatgcatat cggtgtatga 480 agaaatctgc tgttaaggtc ctgcttccgg cgcattggcc gatacagatt atcttttcca 540 tcttttttct ttcaaaaaaa aaaaaaaaac tcgagggggg gccggtaccc attcccctat 600 aatgaatctt attacatc 618 <210> SEQ ID NO 390 <211> LENGTH: 634 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 390 ttgaagggct ttccacaatg agtcgacttg ctcggaacaa gctcaatgag ggagatgatt 60 ttgaagatcg aacgatcgat tgggaccaag ccggcatgta gaccggttcc cggcctcgaa 120 caacaatttc ggatcgaata aaatctcgga acagccggaa aattgtggct tcagcaccac 180 agatatggtg gttcttgcaa gaaaattgaa cgtcggagga tagtatattg ctgagacttc 240 aacattgtaa catcgtaatt tttttgtgga attaattata gtgaatattg tggccctttg 300 attattgtac taaagttcat gtcatttacc atcaactttt aaaggggggg tgtttaatga 360 ggacctttta ggaaattttg gagggaaaat cgcagtccaa taattccccc aattttcaag 420 ttgaattata tttgacattt gttttcggtt aaaacctcct tcgttaccaa tcgtgtacga 480 tgtactaaat tgatacctag cgataatacg aatgatatta ttatatttaa ttaaataata 540 atttacttgt tcaaagtcgt attaccaaaa aaaaaaaaaa aaactccagg ggggggccgg 600 tacccatccc cctatagtga atccttttac aatc 634 <210> SEQ ID NO 391 <211> LENGTH: 489 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 391 cgatttttgg aagcagcaga atcggagatc gtattcggac acagaacaga aaggtgacat 60 tatatggata aggcagaacc taacaaggag ctttccgagg attcgactcg tgaatcacta 120 attgctatat cttacaagct acctgaaaac ggagaagctg atgcaacttc tcctaaaaat 180 acgagggctg atggtgaaac ctcacctcgt gatggagaag acaagttcag gtctgagtta 240 atctctattt cttattcaca gtcaccagat atgaaagtgc aaccgtcgtt gcccatgaat 300 ttcgatggct agcataagca acagctccga cacgtcttac aatgtaaagt tcccagcatg 360 aatcgtaaac aaacttttgt gttggaatct gtctgtgatt ttacgatttg tgctgcaaaa 420 ctgcggttaa ctcttgttgt tcaatacagt aaaaatatgt tatggatact tgtaaaaaaa 480 aaaaaaaaa 489 <210> SEQ ID NO 392 <211> LENGTH: 430 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 392 agaataaaac acaacttcaa ctattctcga agaaagagga ataccctcgt ctctattaaa 60 ttattcatct ttctattcct tgtaataata attattgcgc tgaacattta tggcggtaaa 120 aagtaaaaaa aaaaagaaaa gaaaaaggaa ttaacaaata ctactaaggt aaaaaagaaa 180 aaaaaaaatt taagaagtga agcgctgaga gtctcgttcg cgatcgagat tcgttaacct 240 gtcaacatct cactcttaac ggttgccttt ttttcttttc tttcttcgct tttactcttt 300 tcttttttta ctgtataatc ccccaagagt agcaatattt acaaatgtga ccccaacaca 360 aataaaaata tcatttgtgg cacccttttc tcacaccaaa atgcttctag gcaaccactc 420 gccaccaccg 430 <210> SEQ ID NO 393 <211> LENGTH: 450 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 393 gtggcttctc tcccacaatc ctttcgtctt ctcttccagg agcgagtgct agaatggcgg 60 cttcggcctc tctctctaac cctttctctc tctacaatcc ccgaagcgcc tctcgccatt 120 cctcgaaacc ctcctaccgc ttgtctcttc aacccgggag tagtcagcaa tttgttattc 180 ccggaaaacc catttcgaga acggctgttt cttcctttcc tgttctgaac gcgtatagcc 240 aatttgggaa ttcaagaatt gttaacaatg gttatagcaa tgataggcgt tctcctctca 300 agtcttcaga ttcagctcag caggaaaatc aaccccaaac atttaatgat gacgaatctg 360 gttcagagag ggcagcaagt aaaaggtctc aatccaatat gaagtccctt atgcagttat 420 acaaggaagc gattgcatat ggagatgcac 450 <210> SEQ ID NO 394 <211> LENGTH: 242 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 394 aaccacagag gtttcccaaa cgttcgagcg attcaaagcg gcttttatcc gtaaggattt 60 tgatacttgt accaatcttc tgtctcagct caaggtatta ttgacaggat tcaagagtct 120 gcctccatta tttgaagaaa ctccaaatgc tgtgcatgag ttgacacttg caagggacat 180 ttatgagcat gcagttgtcc tgagtgtgaa gattgaggat caggaagctt ttgagaggga 240 ct 242 <210> SEQ ID NO 395 <211> LENGTH: 793 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(793) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 395 actggagctc caccgcggtg gcggccgctc tagaactagt ggatcccccg ggctgcagga 60 attcggcacg agcccaagtg aagttgggga cattgttgtg ggcacagtgt tggctccagg 120 gtcccaaaga gcaatggaat gcaggatggc tgcattttat gccggtttcc ctgaaactgt 180 accttgtaga accgtgaaca ggcaatgttc gtctggcctt caagctgtag ctgatgtggc 240 tgcagctatt aaagctggat tttatgatat tgggattggt gctgggttgg agacgatgac 300 cagtaatcct atggcttttg aaggagcagt caatccaaga gtaaaaacaa tggcagacgc 360 acaaaattgc cttctcccaa tgggtattac ttcagagaat gtggcacatc gctttggtgt 420 gacaaggctg gaacaagatc aggctgcggt tgattcgcat anaaaagctg ctgctgccac 480 tgcatcagga aaatttaaag atgagataat accagtgaaa actaagattg tggacccaaa 540 atctggcgat ganaaaccag ttacaatatc ggtcgatgat gggatccgac caagtacaac 600 agtcgcaggt ttggcaaanc tgaaacctgt tttccagaaa gatgctcaac cactgctggt 660 aattccatca attantgacg gtgctggact gtgctgctca tnaaaaaaaa tgttgctatg 720 caaaaggact cctattcttg gtgtnttcag aaacttgctg ctgttggtgt taaatctgca 780 acatgggtnt tgn 793 <210> SEQ ID NO 396 <211> LENGTH: 281 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 396 gtgaaagagg agatgcattt tgtggagact ttgctggaga agatgcaata cgagcattct 60 cagctcaaag gaaaactaag agaattagag gtgttcagga accaatgatt ctgacaagat 120 taaggtgctg tacatgttga caattctttt ctattttagg tcaaaagtat attagtggtg 180 tgctctcagt ttctttgtct catttcctcc acttattatg agttcaactg taaatctgta 240 ataattaaaa atatatatat attaaaaaaa aaaaaaaaaa a 281 <210> SEQ ID NO 397 <211> LENGTH: 344 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 397 ctcgtgccga attcggcacg agcggcagca aataattcgc acgagatcag ctcatgggcg 60 gatcaatggg atcctcagcc tacgcacagc tacaccacat tctccgattc cggcggctct 120 tcctcctcca agctctcgaa gacaaaggcg gcggcttcca ccggagttaa gaaagtgaag 180 gccggagcca ccgccggcct acactggatg aaaagcaagt accataaggc cacaaacaag 240 cattagttat tataatctat gtatgtatat aatcattgct tcattctttt gtagttgctt 300 ctctttttca atgtttccat acccagaaaa aaaaaaaaaa aaaa 344 <210> SEQ ID NO 398 <211> LENGTH: 140 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 398 cggttgtcga acaattcgag gctcacggat ggaggtcgtt ttttcaattt atgatcataa 60 gaaataaaag gggcacactc ctgtcatccc ggacgcatgg tgtggtcaaa ttttaattga 120 cgaaaaaaaa aaaaaaaaaa 140 <210> SEQ ID NO 399 <211> LENGTH: 625 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(625) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 399 ggaatgagga catctgaact tcagaaagga gtggcaccat tcgaagaaaa gcacaggcgc 60 tattttgatt tccaacgtan aactggtcaa ctgccagtgc aaaaggaggg tgaagaggtt 120 gactacagag gcgtgcttca ccgagatggc tcggttctga tgtcagttac gctggatcag 180 ttgaaggctc ctgaattgct gtacaagtct cttgcagcaa agcttattgt tggaatgcca 240 tttaaggatc tggcaactgt ggactcaatc cttgttagag aacttccccc acaagatgat 300 aaaaatgcta gattggctct caaaaggctg attgacatta gcatgggagt aataactcct 360 ctatcagagc aactgacaaa gccactaccc aatgcattgg tccttgtaac tctcaaggaa 420 ttatcatctg gtgctcacct gcttcttcca caaggtacgc gttttggtag tctcactacc 480 ttggtgatga acctgaagaa gaattggaaa ttctccagat gactgatgct accatgatct 540 tccatcacgt cccatattcc gatgaaaaaa tggcagaatg catgcttgca agaaggcttt 600 ttgaattctt tcataaaact cattg 625 <210> SEQ ID NO 400 <211> LENGTH: 246 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(246) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 400 gtttctctta ttttggcttc caatcttcag gtgttagcca ttgtaatgat gttcgactct 60 gttcngggat gtaaaaattc agccatggaa gaagctttta gtcataatat gctggcttcg 120 tttcttctgg ctaatgttct tacaggactg gttaactttg actgtggata ctctgtctgt 180 gtcctccatt tcagctctag ctatcctgtt tgtttatgcc ttcattttat gttttgttgt 240 tggaat 246 <210> SEQ ID NO 401 <211> LENGTH: 269 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(269) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 401 cggacacaac ttggccttaa atccataatg atcaaaatnn aaattagcca gaaaataata 60 catcgaattc acagtgttaa actgcataag ctgacaacca ctgcatccta ctagtcctca 120 tcaaaacttt tttgcaaaaa aataaatgca tcaaagtcac ttgcatcaac atagagacct 180 tacaaaacct acaaacctca tagtttacag ttcatcgtgg tcctcatcct ctgcgtcctc 240 cgatttgcca ccagggaccc caccggtcc 269 <210> SEQ ID NO 402 <211> LENGTH: 638 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 402 aaatatttgg tttctgtttc tgtaccttcg gaaattctta agaattctgt gcacttcttc 60 aacttctcat actctatttt gcttgaaatt ctgagatatg gagagagatt tcatggggtt 120 gaacgctaag gattctgcca ttaaggaaga agttgttgag ggctgtgaaa attctggatt 180 tgcaaggagc tctggcgttc catggtcatc atcgaacaag gtgtctaccc tccctcagtt 240 tatgacttta aggtgcgaag aaaatgagaa accattaatg aatgggcagt cggcatatcc 300 tatgcatcca ttttcggcga aacaacaatt tcttggtgga aatactcatt cagttcctca 360 tcctactctt cctacggttg cctctattgg tgggacaact gaacaatgga cttctaaggc 420 ttcccatgcg cctgctcatt gacaattttt tatggcggac tgttaatgtg ttttatggca 480 ttcccccaaa aggctcaggc cattattata ttggctggaa atattttgtt ccatctatga 540 agaagcaatc aaacatccct tcaagcactg ctccaacttc cacttgggaa aaaccctggt 600 ttgccatccc tgaatacccc ccccctcttg aaaccaaa 638 <210> SEQ ID NO 403 <211> LENGTH: 458 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 403 aaaaaactca aatttcatcg gcttctttat ccagttttac gaaatgatga tagagtgtgg 60 gatgatgtgg aacccgatag agatggagga aaagagacga gaagttttag agaatactaa 120 ctaggcggca gattctctgg gaggagagaa tctctagggt ttaatcccaa ttgcatcaca 180 attggcaagg ttcatgaatt ttggagaggc tgcagacatt agtgatgatg tgatcaatct 240 ttcaccatct ttagtaaatt ggttcaaagc aataaaaaaa aagatccaat ttcaatgctt 300 tgacgtcaaa tttgtttgtt caatttttgg ctgcttattt cttttttttt tttacttttt 360 tatgttattt tcttaatgat gatatggttg tagattgttg attaatacca ataacccatt 420 aattattttc tttgaactaa aaaaaaaaaa aaaaaact 458 <210> SEQ ID NO 404 <211> LENGTH: 453 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 404 agggaccgtt tggctgagga ggataagtac gaggaagagg aagaagaagc tctcgaacaa 60 gtcgtccatt tcttccaatc caaatacttc aacaaagact gtgtcatcac tttttatttc 120 cccgctgctg ctccatctac tgcacaaatt gcatttgcta cggaggggaa agaggagtcg 180 aagatggagg tgaagaacgc gaacgtggcg gagatgatac agaaatggta cttgggcgga 240 agccgtggag tttctccgac caccgtctcc tccctcgccg ccactctctc tgccgagtta 300 tcaaaatgat gaattgtact tttattccgt taagaaaaat gttattggat tgcggtttgt 360 tcaacattgc attgcagccc cttgaaagca agttccccct aatgttttta taaataaatt 420 gtttcatcta gcgaaatatt tttttgaatg ccc 453 <210> SEQ ID NO 405 <211> LENGTH: 123 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 405 aaaggagggt gaaatagatt gaggaagggt gtttaaagtt gtggaaattg agggaggcgt 60 ttgcattctt gttcgtgatg aaactcaatt cttgttttct tcaataatct gtcttcatct 120 tcc 123 <210> SEQ ID NO 406 <211> LENGTH: 360 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 406 caaaaatggt tgctgcggag gacaaggagg cggcggagga tatggaggcg gcggttgcaa 60 atgctgcggc agcgctgcgg aggcgaaagc tttcatggaa agcaaaggga ataatgaaga 120 aatcaagaac taaagaaagg gttttaattt gcatgcagta tagtgtgcaa ggccgtgttt 180 ggatatggaa ataaataatg cagggttctt aattagtgaa aatggtaagt aaaaaaataa 240 atgtgggacg tggaagaaag gtcttgatct tcaagacttt gtacttggct tttgtaatct 300 tgagagttat gaaatgacca ttttcagttg catgctaaaa aaaaaaaaaa aaaaaaaaaa 360 <210> SEQ ID NO 407 <211> LENGTH: 620 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 407 gcctccaaga agatgaaaat ggaaacaatg gagcggatgc tgatgctgat gcaaatctta 60 ttcctcaact ggttgaaaaa cttgcaattc ctatcctgca ccatcagtta gcgtattgtt 120 gggacattct tagtacccgt gaaaccaagt atgctgtctc tgctacgaac ttggtaatcg 180 gatatgtaga tctttccagt tcggctcttg cggaactggt gggtgttctt cgtgatcgtc 240 tcaccaatgc tgtgactgat ttggtggtcc ctacatggag tccgatggaa ctgaaggcag 300 tgcctgatgc ggcacgagtg gctgcatata ggtttggcac tgctgttcga ttgttaagga 360 acatatgctt gtggaataat attctggcgt ttcccgttct tgaaaaagat tgctcttaat 420 gaacttttat gtgggcaaga ttctcctcac tgcacagcat acagggaaac gtgcacaagc 480 aatgatacaa cagagagggt cgtcgcttca ctctatgatg tttggacagg tcccaatgtt 540 acaggggatc acagtaggaa gctgccccct tggtggaata ctgctgttgc cccggaaggt 600 cttggaaaaa aacatggttc 620 <210> SEQ ID NO 408 <211> LENGTH: 406 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 408 ttcacctcaa atgaaactgc caaaataatt ccgacgttgt ttcttcgcac agattttcca 60 gttgcagtgg tgggttttga tatatataat cttgtgttgg taaaaatgag tgttcttgtt 120 gatcctgtga cgaaatggcc tcagaccatc ggcgttagag atgttcacgg cggccggagg 180 cggagattca gatccactgc ctctctctct catccactcc gcgccaaact gtctttctct 240 ctctacttct caagccctac tatcaaaggt tctgccagtt tttccgtttc tgcagtttat 300 accagcgaaa ttagggctga agatccggcg tcttcgactt cgccggcgtt cgatttccat 360 gggtacatgc tccgtgaagg cgaaatccgt gaacagggcg ctggaa 406 <210> SEQ ID NO 409 <211> LENGTH: 517 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 409 aacaaactcg attaacggca aaatgggcgg cggcggagga gatcaccacc accacgcaga 60 tggagcgcac ggcggagatt tcagggcgaa ggtttggagc atgacgggtg gaccaaactg 120 tcggcccgtg cactggaagc gcaatacggc catcgccatg gccggcatcg tcttgatctg 180 tatccccatc gctatgaaat ctgccgagct tgagcaacgt ccacaccctc cagtgcgtcc 240 gattccctcc cagatgtggt gcaaaaattt tggcaacaag gagtattagt tctttgtgat 300 gcatttgtaa gaaacattac gctgttttcc tctcgttttt ttttttcttc tggaatttct 360 tctgtttctg aaacggagtt gatcatatga cctccattgc tgtatggcat gtaataaaga 420 ttacaggatt cgttcttttc gtgatatcac aaatgtctca aggttcagat gtaaacagat 480 ttgacttgtt tagattttac ttatataggg acgccga 517 <210> SEQ ID NO 410 <211> LENGTH: 511 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 410 catcaccgcc gtgacgaaga ggaggtgtcg gtcgccgaag gaagccactc ccttcgttgc 60 cctggtcgcc gagcagtcac cgtctccatc gcagagaact ccgacctccg gtgaaggtgt 120 ctacagttga gagttcaagg atggtagtta aggaattgac tgaagttcgg gctttctcct 180 gatgaataat gtgaatgaac tgtccggagc tgtcgctcct tttcttgcta gcctaggcgg 240 gagcagcagc gggggtatgt ctggaaacca cgggagcagc ggggggtggt cctctttcgg 300 tcttcatgta ttattggagg aggatgatcc gttaaataac gacgaagtca tccagccaaa 360 ccccgaggtg gcaaaccctg taaaagtgat aatctatatg aataaaagtg acaatctttg 420 gaatttccga aataatcaat atttcattat tgtaattttc caacagctaa atttattcga 480 caccttacga gtaaaaaaaa aaaaaaaaaa c 511 <210> SEQ ID NO 411 <211> LENGTH: 609 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 411 ctcgtgccga attcggcacg agaaaatgca taaaattcag gccctcaata ttctggttta 60 cgtgagcatc attggaccag atatttgctt ctgatcaatt ccagaatgca tggatttaaa 120 tttaaatgga atacttgagg aaccacttgc tgaactcaga gatcgtgcga cgagaatcta 180 atttatcacg agagcatcca ttcaaaattg tgacacaatc tttctggttt caaagctctg 240 atattttata taccacgaga tcttcaattc taaattgtgg tacattcttt ttggtttcca 300 aattttgagg tgataagagt aaagtgatga aagttagtat tattctactg aattagacag 360 ttataaaaca tgggtgaggt tctcttctat gtatttctac atgttgatac tcgtattttt 420 tttccatact cggtttaagc agagttgcaa ttgaggttag aaaaaaaaaa aaaaaaaact 480 cgaggggggg cccggtaccc aattccccta tagtgagtcg tattacaatc actggccgtc 540 gttttacaac gtcgtgactg ggaaaaccct ggcgttaccc acttaatcgc ttggagcact 600 ccccctttc 609 <210> SEQ ID NO 412 <211> LENGTH: 618 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 412 ggcttttata tatattggca attacataac agctgctatt tatctaatat tcaacagtta 60 ataatactct actagtatac aaaagggaac tcggaagaga accttctcct tccgaacctc 120 ttcgttcccc tctcgagttt catcgtcgaa acccccctct tcgattctcc attgctctcg 180 gatcgaagca cgagcttcat gtgttgtacc tttgataaat gaaaggtgag agatttcatc 240 gacaagaagc tatgtcgggt tgtaccagct cgacccgaat aggtatccgg atagatcctc 300 tgcactcgag tccttggtgc tgtctgtact gtacgagcca gcatcggata cgctgaaaat 360 cgaagagctg tcgcttgatg agtcgagcgt gtgatttttg tgcttggctt gaaattccca 420 atcctcggga tcttgagcag tactgaaatc acttgggaga catccaatga ggagagcttc 480 gagtagaaga cttaattttg tcttcggaat tttcttcttc caactgttgc tggaggggac 540 ggttctgtgt tttcttaact tcccacggaa tacgcattgc tatttcttat gaaagatgca 600 ccccgcggaa catgcctg 618 <210> SEQ ID NO 413 <211> LENGTH: 489 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 413 gtgagttcta tcaaagagta ccatgttaat tctctagcag ttccccggaa agctaaggaa 60 gctattggag gaatcactaa gctcactcac aaagatggga ggtcaatggt gatcaatgtg 120 gaatacaatc aacttgatcc attgctgaga gcttcagggt atcctgatgg tgatgtgaac 180 aatgaaacag gatattctcc atttccaggc aacataaacc aattgattta cgagattggt 240 ccttatctgg aggaactttc taaaacaggc ggtgctatca aggagtttgt ttgtccagca 300 tacatagatt cttcttaaac tgctttcaaa tcatctactc ggcctgaatg catgatgcaa 360 agattatcct aaaactctgc ccgcttcagc tagagttgga tttactgtaa tggaagcttg 420 gcttgcttat gcccccgtga ataataaacc tgaaaaagac caccccaggt tccgtaaagg 480 ggaggccct 489 <210> SEQ ID NO 414 <211> LENGTH: 297 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 414 aagaaagcaa aatagtagta ggtggctgca ggcttcattt ttcatttccc agaattgtaa 60 ttattgctgc agctagtcaa agtattttat tcatttgcta tctcttggta attcattggt 120 tagactctga ttgttcttta attatttgtt cctctcttta cttaattagc gactgtttta 180 tttgaattta ctagaaattt tcgtttttaa ttaatagtgc aagatgtaaa tgtaatttat 240 ttaatgttgc tgttttcctt tagttgatga attaaaattt tcggctgttt tggtttt 297 <210> SEQ ID NO 415 <211> LENGTH: 629 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 415 atttcttgtg atttgaacgg ctgcccaatt ttttggaact agccgttagc ttcagccggc 60 gccggaaaca gctctatccg gccaccccac cgacctgtgg tggtaggtac tgactattgc 120 ggtcgatttg agccatttcc catcgccgat ttgccataaa tcgcggcgga ctgtgcttcc 180 ccccaaatcg cgtttttcaa atcgggaaga ggggcgccgg aatcaggcat ctccgacgac 240 atccaacacc tgggacgact tcggagggtt gctgcaacac tattgacgcc aatcccgctc 300 cgatttgacc cgattcaaag actgtaccag aaactagggt tcttcttcgc cggcgctccg 360 gcgccgataa atccgctccg gtctccccca ctaccctggg tgaggtcgtg cgaacctatt 420 gaaggtttcc acggtcacga ttcaccatcg attgcagcaa ttcaactgct gcagatcaat 480 ccacaattct gcaaaattag agctaattct gagtgcatag ctcgtgttcg ataaaagtcc 540 tgacagaaag attcctgaat tattgctgaa actgaaattg gaacttctcc ctttctacgt 600 tggtgttttc ggtcacaaag tatcactgg 629 <210> SEQ ID NO 416 <211> LENGTH: 629 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(629) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 416 cttccaaccc aaaatatcca cctttgattc ccctcttttc ttctgcattt cactctagca 60 ttcctcaacc aagaattctc ttcgattggg agaagttggg aatcaatcaa gattgaatct 120 tggtagcttt ttgatactaa gctctgaaaa tggctgtagc catggcttct agttgcagta 180 agtttgggct ctacaccaat ttgagggcaa tgganaagca atccagctca agggcatctt 240 catttttatg ttcttttggg ttggatccac ctcagatagc ttgcattaat ctcaagaaaa 300 gcctatcatc ttccatgagt acttttatac caaaagcgtc agcatctact gctgtggaga 360 atggaaattc tcaggataca gatgtggttc ccacccccag cgtaataata gatcaagatt 420 ctgatcaaga tgctactatc gttgaaatca ccttcgggga tcgccttgga gctctcctcg 480 atacaatgag tgctcttaca agtctcggac tgaacgttgt caaggctaat gtttacctaa 540 atgcttctgg caaacacaac aagtttgcta tcactaactc atcactggaa ggaagattga 600 tgacccgaac tgcttgaggc atccgttga 629 <210> SEQ ID NO 417 <211> LENGTH: 588 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(588) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 417 aaaaaaactc tctctctcct ctctctctct ctccaaacat ctcatggctg gtctacagta 60 caacttcttc ccaactgacc tcttgtaccc tctccagcca ccggcggcgg ccgccaccgc 120 caacggcggc gcagacggct ccgtacggca ggtttctttg gtgaagacat ggaattccga 180 caaatcggag gatttgaaga ttaattccgc gaatagtaag ggcaagatgg tcaaagcact 240 tccttcttct tcggtagctt attatcctat gattcctatc gttcctaaga agaattgatt 300 ttttttcttc ttctttcaat tatatactta attatgacgg tgcagaataa tactccctct 360 gttttctctg atttggcccc ttttattatt atataccacc catacaataa ataaaggagc 420 caagtcagaa aaaacggagg tagtatattt tgtctgagat tattggacgt gataganttt 480 taattaatat gtcgattttt cgacagagtt tgtaacaata gaaaaggcta tgaaatttgt 540 tctaggcatc tcatatctaa tgatgcatat atgatgactt taatttgt 588 <210> SEQ ID NO 418 <211> LENGTH: 271 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 418 gaagcaggcc caaccaccgc cgctgagtgg ttattctaaa ctctctctct ctccctctct 60 cctccaaata aatacaaaag ctagacgagt attcagaact gttgttaatt tctgctgatg 120 ttgatgattc gagtcatgtg aggatggagt aacacacaca gctcctacct cataacattt 180 gtctcttata ttgcgaatat aaatatatac tactaaataa tcaattacat gcagctgttg 240 ctaatttttg ctgtatgtga cacgtgtgtg t 271 <210> SEQ ID NO 419 <211> LENGTH: 556 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 419 ctttgttggt catggatgtg gaaattcttg gaattgtaac gagaaaactg tgtctgtaag 60 acaaagcgaa tggggacagg gacaaagagg aaacaattct tggagttcga gaccttggaa 120 taagaatgct gaaggaatga catcatttca aaataacaat ttaataggct caaaagagag 180 aggttggagg gacgacagga atgtgtcttg gggagtgatg aatgcagaat accaaggtaa 240 cgaggaaaaa atttgggatc caaatttcag gggtgggagg ccattcaggg gtggtggccg 300 gaaaaaaaaa agtactgtac aacacacgtc gaaatataag agctccagat atcttggtga 360 ctcctatcaa tatggccatc agttttgaag atttcggcca cttggtttgt attatgatgt 420 taagttctta ggaagtatta ttgcttcggg aaagattgaa gtttcacact accttttgcc 480 aatggtgcag atttcccctt atctattttt ctaggaaagt gcttagaagt tttggtgaac 540 acctattcca ggaatc 556 <210> SEQ ID NO 420 <211> LENGTH: 347 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 420 gaagaagctc tcgaacaagt cgtccatttc ttccaatcca aatacttcaa caaagactgt 60 gtcatcactt tttatttccc cgctgctgct ccatctactg cacaaattgc atttgctacg 120 gaggggaaag aggagtcgaa gatggaggtg aagaacgcga acgtggcgga gatgatacag 180 aaatggtact tgggcggaag ccgtggagtt tctccgacca ccgtctcctc cctcgccgcc 240 actctctctg ccgagttatc aaaatgatga attgtacttt tattcagtta agaaaaatgt 300 aattggattg cggtttgttc aacattgcat tgcagcccct tgaaagc 347 <210> SEQ ID NO 421 <211> LENGTH: 333 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 421 gtcaatgtcg gagagattgc tgggtgcggg gtggagcacg gaggatgtgg tggagctgct 60 cggagttcca cacgattttg atcggagcgg tgaggatgat ggggactatt gcttcgattt 120 ccgtcgtaga caaagttgtg atggtaaaag gaatactact tttagcctta cattttgatt 180 ttcaaccttt tttttctcct tttttttttt cacatattaa ttatctaaaa aatagttacg 240 taaattctca aaaaatcagt aggtagtcac tcgatataac aacaaaattt ccgaattttc 300 ctcataatta tttgactaat ggtttgacaa ttt 333 <210> SEQ ID NO 422 <211> LENGTH: 646 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 422 ttcacgttgc agcttatgta ttaaactttt gagattgatt taataacata caagcttcta 60 aattttcaga gtatgaatgt ttgttctttt cagcatgctt tatgaattcc aactcaactt 120 gcttcttata ctcttgtaaa ctgtggttgg acataacaag aattatgctt ttgtattatg 180 ttttgtttcc atattttgaa gaatggcaga ttccatactt aggggaaatg catacaatgt 240 tgttatcaag taattgtttc atttatgtaa tttcttgtag tttagcatgc ttgatttgtg 300 tactgtttat tctaggaaga catgcttcct atattgaaag aaaaataggt attcgattat 360 tagtaccttg aaagaatgga tgtttggctt ttgtgatttg agaatggctt tctttcttcc 420 tccctagttg ctgtccgaac ttctccctct tctcagattt ctgtttctct atattcttgt 480 tgtttttgtg ttagtgtgag aatgaatttt gcgtgaggag tgttcttaaa actgaatttt 540 gaaatgtgaa tagatcgcat tgatgaaggt tgtttaaaac tatttgaaca tgctcctgct 600 actgttgaag attatgatcc caaaatctaa gggatcgggt tgctgc 646 <210> SEQ ID NO 423 <211> LENGTH: 640 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 423 ttttctttcc cttcctctac ccgtcacttt ccttcttctg tgttcttttt ttttttattt 60 ctctcttcca ctcacgcata cacacatatc accgcatctc catccttgtt tttggaagct 120 ttctagatca agtaagtcaa tattactaat taaggtaagc tattttatta actcttgttt 180 gaagaaagta gaaaaaaaaa cagagaatcg agttttgtat agaattcgaa tttgattgga 240 gtatgattat atgaggttaa tctttagttt cttggattta gaacctcctt tggtatgagt 300 agtgatgatt gaatcaaaag aaatacctct ttatcaagga ttgaaatttg aatttttaga 360 tttaatttgg ggattttatt ccgaaattta ttttgtaaaa ttgagtatga ttaggtgttt 420 atatggattg taagaagcaa gaatggagtt ggtgaggatt gttagagatc aatttcatga 480 ttttttggaa ttagtgttct tgatgaaatt ggggaatatt tgattttgat tttatttctt 540 aaaactaata agggaaatat gaactaatat taattgatgc tcaagtgaat tttgggagat 600 tttgggactg ccttatgaac aaaacaaaat gacggttgaa 640 <210> SEQ ID NO 424 <211> LENGTH: 622 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 424 aaaacgcgtc gtcattactg tattttccaa tttccgccca aattcaattt tacaaaccct 60 aaccgcctcc ccactgggtt tgcacacttg aaggttcggt taaatcttaa tctgctacga 120 agtgctctgt ctcactttct agaaccctat aaatatccat tcgggaacga tggcgattgc 180 gagaactgga gtttttgtcg acgattattt ggagtattct agcacactgc cggcagagct 240 tcagaggctt ctcaacacta ttcgtgaact ggatgatcgt tcacaagcca tgataaacca 300 cactaggcag caaacaaaat attgtttggg cttggcatct caggggagct cattctctag 360 gaaaaacgaa gatgaggagg tgtctgaaaa gcttcgaaaa gaaattgaag caaaccagga 420 caatgccctt agcctctgca ctgagaaggt tctattgggc cgacaagctc atgaccttat 480 tgatagtccc ataaaacgtc ttgatgaaga tttaaataac tttgcagaag atctccacaa 540 gaaggaaaaa taccccagat gacccactgt cttcctccat tacctttatt cctaaaattg 600 aaaacgcaac catttatgga ac 622 <210> SEQ ID NO 425 <211> LENGTH: 366 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 425 agagagagag gatgggagtt ggagaatttg taaaaacaat gaagggaatg aggaaagagt 60 ggtggagaag gagaataagt tccatgaaaa gtaagaaggt gatgaatatt agagtatggt 120 tggttgatga tgtcatcttc aagattgttt atgtgttgga agccatcgtt cttgtttcga 180 cgctctgctt cttctacctc tgctgtggct gtcacattta aacttatttc tctctcattt 240 tcattttcca aatacatgaa ttcttttatt ataaatgatg acagtttgta cctattaaga 300 gctctatgtt ttgtaccttt gttttgcgcg gtcagatttt ttaatttata tattcttcat 360 agttcg 366 <210> SEQ ID NO 426 <211> LENGTH: 478 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 426 catgtgtttt attatatctt tttgcttgtc tgttactgca gtatttttct taagtctgtt 60 attatgtgca taccttttta ttcttttgtc cttgtttacg atttacatta tacttgatta 120 ctgcatgaga aattccagaa ccgtacttta tctgtgtata tgttgtctgg gttgtgtgca 180 aagacattcg gtatatatgg tgcttatgct gtgaaactga gatttcagta attgtttatc 240 tttgaaggat agacccatcc tccacattgt tatggttgtg aagatgtgaa tcaaattgat 300 acttgcaacc tttccatatg tcatatggta cctgttatgt ttgacattct tcactaaacc 360 aatattggtg cctattttag tccatatact ttcatttggt cataattagg cctccctgta 420 aaatctgagt ccctctctga atacgtatat caagtcccta agccaatata aaagccaa 478 <210> SEQ ID NO 427 <211> LENGTH: 480 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 427 cggcacgagc cagatttgag attttccgat aatcccgact cccaatccct aaactgttcg 60 ttagcatttc tatcggattt ttttttttct tttaaatatt ctccgcctca ttattaataa 120 aatccaactt tccttttttt tccccctttt tttaaagtca aaatgcgcaa tttttcctta 180 gctctctttc ttcctcctcc actgtagctg cgatttcccg aaatttaacc ctttttttac 240 actctttgga aaccgttttg gccgttttta ttaattgaat ccgaatttaa aatcttctct 300 tgttgttttc acctcgaagt gacgcttttg ccctccgaga atctcgctga cgtggcgccc 360 atctttattc tcctcccgat taacgatcga cgggcaggat gagttaccac tcgcgcagag 420 tagtgacgcc tggagcctcc cggaagcgga aagaaatgga ggcctccatc cttccacgtc 480 <210> SEQ ID NO 428 <211> LENGTH: 341 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 428 cttgagcaaa aattctcctt acatataacc cttcaccaat ataatcccac cttcaaagaa 60 atgacaagga aaaggaagaa gaagaagaag aagtagcagt tcagatcaag tgctctctct 120 tgttatctgt caaatggaaa accctcggct attcgtgtat agaatgattc gtgtttcatc 180 atcgcagcca tggatgagcc catgaaaaag cgacgtaaaa catgatgatg acattctata 240 ctcgaggtat cgacgaacaa aggcttcaaa aaccattgtc gttaaataag gttgcttatt 300 gccgatgttg tctgaataat tatatatgca tctttccact t 341 <210> SEQ ID NO 429 <211> LENGTH: 254 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 429 cccgacgtgg aggtggaatt gcaaccaccg tcgctccctg aattaatcat tgtttccatt 60 cggatttgaa ggagagcaaa aatgggaggg ttgtgctcga cgccgacgaa tccgaaacag 120 gcgccgaatc cgtacgcagg cagaagcaca ggccttgaga agcagtttga tcagcagcgg 180 cggcgagagg cgcagagaga agccactcag attgcgacgg ctcagccggc ccgtagagcc 240 tctggagaag cccg 254 <210> SEQ ID NO 430 <211> LENGTH: 495 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 430 atagggtctc acaagcttct gatccagtag acattaatgt ggcataagtg tttttagttt 60 ggtagtagta attttcatct ggtatcccgg atactccatc tccagctgtc ttgagcattt 120 tcctttatac aaaacctctt aatatattac tccctccgtt ccagaccact tggcctgctt 180 tcctattcgg gccgtcccac acgaataggc ctgtttccca aaaatggaaa caataagtgc 240 cttaacaccc cttctccttt ccctaaacca acacttctta aatcccgtgc caaaaagaaa 300 caggccaagt ggttcgggac ggagtatgac ttcgtactcc ctctgttttc tctgatttgg 360 ccccttttat tattatatac cacccataca ataaataaag gagccaagtc agagaaaacg 420 gaggtagtac tatttaataa gtgagtcaaa taaaatgaga tgagattatg atgtgtatac 480 ttaatgggag agatt 495 <210> SEQ ID NO 431 <211> LENGTH: 627 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(627) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 431 ctgagggtgt ggaggcatct ataatttatg ttcgtttcaa agcagcagca aatgagctta 60 agccagtatt ggaggaaatt gaaagcagaa aaccaaggaa agaatatgtc cagatgctca 120 tggaatgcca caagatttat tgtgaacaga ggctcttact ggtgaggggt atagtacagc 180 agcggatctc cgaatttgct aaaaaagaag ccttgccatc attgacgaga tctggttgtg 240 catacctgat gcaggttggc ttgataattt agttttcatt ggtttgttat tgtttcagag 300 aatttgtaca agctcaatgg tagtttaata gttttaattt gagatagaag atagaactac 360 ttcctgttcc ttttacatgc tttacaaaat agaagtgaca tttggagctt gatcaatgtt 420 atttcacctc gctcacttgt cgatccatca cagctcaggg tgctaaaata tcaggccatg 480 tnaaaagcat ttacttctct gcacgctttt attggagctt attaaataat ggatgaaacc 540 tgaaaataac tatatattga tttgggttga tcggaatcct caaaattagt ttaaaactac 600 tttttgaaac cttttcctat ttaggaa 627 <210> SEQ ID NO 432 <211> LENGTH: 632 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 432 ctgagggtgt ggaggcatct ataatttatg ttcgtttcaa agcagcagca aatgagctta 60 agccagtatt ggaggaaatt gaaagcagaa aaccaaggaa agaatatgtc cagatgctca 120 tggaatgcca ccagatttat tgtgaacaga ggctcttact ggtgaggggt atagtacagc 180 agcggatctc cgaatttgct aaaaaagaag ccttgccatc attgacgaga tctggttgtg 240 catacctgat gcaggttggc ttgataatta tagttttcat tggtttgtta ttgtctcaga 300 gaatttgtac cagctcaatg gtagtctaat agttttaatt tgagatagaa gatagaacta 360 cttcctgttc cttttacatg ctttacaaaa tagaagtgac atttggagct tgatcaatgt 420 tatttcacct cgctcacttg tcgatccatc acagctcaag gtgctaaaat atcagccatg 480 tgaaaagcat ttacttctct gcacgctttt attggagctt attaaataat ggatgaaacc 540 tgaaaataac tatatattga tttgggttga tgcggaatcc tcaaaattag ttttaagcta 600 ctttttgaaa ctttccttat taaggaaccc at 632 <210> SEQ ID NO 433 <211> LENGTH: 523 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 433 accaaatccg ttatatacat tactggaaat attcgaaatt caggaacaga aaagcagtca 60 gattaaatcg gggaaagagt atggggcaga tgacaaacgg taaatcgaaa aaagaggtga 120 aggaaggcat taaaaaggaa gaaatcattg aagatgaagg agaagaagag caggagcagg 180 acggagtttc cgtgcactcg ccgtgcaaaa tcaactcctc ctcacttagc aaggagaaat 240 cggaggtgga tttggagctg agattgcttg aagccctcga aatctatccc ccttccaaat 300 tacgaggtgt acatcggcac tttgttctct atggtttaac tgagtacatg cgaagaagct 360 tcaatcgtcc atttactgca gatgacgttc tgaagttgct gggccgattt tacaacttag 420 aaatggtgaa accagacgac gaagacgcgg agtttctgtc gcaggaggaa gatttccgct 480 taccacagag ctatttcgtt gatgaagaga attgatacat tat 523 <210> SEQ ID NO 434 <211> LENGTH: 296 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 434 cttgggtctt gtattttctc cagtttgtta ttccgttaag aaaatataga aagtagatag 60 tatccaactc ttggtagtgg tagttgtatt aacctgtttt gaatgcttta gaactcctat 120 ggtctccccg aaaacttgat gggattgttt ggtttatgga actattgaat gttgatgttg 180 atgttgatgt tattttgctt tcgagttgtt taggttgctt gtcacaccac tggtgtttga 240 acaatatttt gtatttgcat tctgaattgt gaatctgttt cctaagtgca gttgtg 296 <210> SEQ ID NO 435 <211> LENGTH: 290 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 435 tttgattaat aatttgtaat attattttaa ttaatttctt cgaaaaggaa aagagagaaa 60 aaaatggagt ctgaatttga gcagctgcaa aaattctcca tgagagatta gtgttatgat 120 gtactataat gtaaatatgg gggaaggttt gctcatgcaa gactcttgac ccatggaaac 180 tgggggagct gttctgaata attgttgaga tggcagcctt ctcctatatg ttgtatgctg 240 aaaataactg cttcatactt ttattcaata aaatcatttg ttccattctt 290 <210> SEQ ID NO 436 <211> LENGTH: 346 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 436 cgagtatgaa ctgcatatat ccctcagacc tattgccctt caccagaagg cccctttttc 60 taattgttga tggtgacaat agtaaagcat ttaaggtgat gagtggtgct gaaaaaggag 120 aacctgctgc cattctactt tctccagtga caccattacc tactgtggaa tcatctaaac 180 aacctagtgg cagcttgttc accagttttc tcacatctcc tctacagaca ttcaccctgt 240 tggttgggtt taccggctct gatgttgaca aggacctcta taatagagga gagaaattgc 300 tccagtcctc attaaataaa ttcggatcat tgttagccgc ttccga 346 <210> SEQ ID NO 437 <211> LENGTH: 372 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 437 gtaagtttat ttcttcatct ataatcgttc tggttcgtaa atgtttcctt ttctttcgta 60 attgtaactg tgaggcttat ctggacttct atctcaagtt tgtatgcatg actgcaaggt 120 tcctccctca ttctgaatcg gatctgttct attttctagt tttgtagctg tatgaaatgt 180 gtcggtcact gggaagctaa aattacatcg tttgataagg atctgcctca tatttattga 240 tatttacttc gtcaaaattg aatctagaaa gagatcacag cgctgaaagt gtgtatggct 300 gtgttcgttt gttctctttt atttttcttt gagtttcgtg tatgtgactg tgaactggga 360 ttctggttga at 372 <210> SEQ ID NO 438 <211> LENGTH: 405 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(405) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 438 ctcgtgccgt gggaaggtgc aaaatatttg gcttctgttt ctgtaccttc ggaaattctt 60 aagaattctg tgcacttctt caacttctcg tactctattt tgcttgaaat tctgagatat 120 ggagagagat ttcatggggt tgaacgctaa ggattctgcc attaaggaan angttgttga 180 gggctgtgaa aattctggat ttgcaaggag ctctggcgtt ccatggtcat catcgaacag 240 ggtgtctacc ctccctcagt ttatgacttt aaggtgcaaa gaagatgaga aaccattaat 300 gaatgggcag tcggcatatc ctatgcatcc attttcggcg aacaacaatt tcttggtggg 360 aaatgctcat tcagttcctc atcctactct tcctacggct gcctc 405 <210> SEQ ID NO 439 <211> LENGTH: 239 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 439 ctatattgca ttgccgcatc tgatattttt gttacgacag tgtaatggag agtggatgcg 60 agaaagagac ttttctcttt tttcattaaa ttcaataaaa aaaaacatga aactctcttt 120 ctttctaaga gataagattc aatagaaaaa tattcgaagt gtctttttga ctttgactcg 180 tgggaagata tactctggaa tcttcaattt atctgaagga agaaagaaaa gaagatata 239 <210> SEQ ID NO 440 <211> LENGTH: 615 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 440 ccgtcctcca tggtgagcat ttttataata acttggctga gaagatccat gtagcatgta 60 aagcttctgg cttatctctt gatacaccta gctacaagga ttcgttggcc ctttttcttt 120 ctggagattc ttatgctaag gctctccaga ctatttcttt gaacttgcct aaacctattt 180 ttgtgaataa aagtgaatat tttattaggc aagtttttcc tcatgtttat tttgtttcga 240 atgagagaaa tgttactatt catgagttac ttaaaataac aactcttcga aacatttgct 300 atatatctcg taactatgag tgtagaaata acagccgtgg tcttttcaca ttgaagggtg 360 aaggttggca gctagctcca gtttctgctc gtatggcagt ttacaatgct atgctaaagc 420 ctgtttactt tgttgatgaa ccaatgatgg gttggctatg gcttatgttt taaattacct 480 cttgcgtgtt aagggcgttt ctcggttaaa tctgagtgaa ttgcttttca ttgtttatgg 540 gcataatgaa aaattgtgct ccccattctg aaaaactccc cccttttgga tattcccgat 600 atgtgcccct aacaa 615 <210> SEQ ID NO 441 <211> LENGTH: 565 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 441 tcaagcccaa gtatggcctc atcatcattc actgctttct tcctcctcct aaccttttca 60 tgcttcgtct cccactgctt aagccgcccc attagtgtcg agtccgcctc cgatcctcct 120 aaggccgccg tggataagga cgggaaattc ggggcggagt tgtggttcga ccacccgtgg 180 cacaagaaac cgtggtcatt tgctcattct cccaagtctc atgatgatca tgacggtgat 240 tacgagtggg accattggaa ggattggtca tttgctcatt ctcccaagtc tcatgatcac 300 gacggtgatt acgagtggga ccattggaag gattggccat ttgctcattc tcccaagtct 360 cacgacggtt ggaaatggtg gccgaagaac gaagaagtgg gcgccgatgc aattgaagaa 420 gctaaggtcc caactccgcc cattgcgggg tagatcgatg aatttttccg cttacaataa 480 gataattttg aaaactaact aattctggtt atgttgcgcg ggaaaataaa aaaattacaa 540 tgcttgaagc ataaatttga aatac 565 <210> SEQ ID NO 442 <211> LENGTH: 369 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(369) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 442 ttctttcgtt cctttcttgc gtttttcttc aagaagttgc catggtgatt accatttaat 60 tccaaagctt caaggagtga accaatgaag gtacgagcgg gaagtgatcg aaaagaggtt 120 ggaagaaaca taataagcta actaaaccgg agacaggtta agcttggtga tganatggag 180 gtgtgctgag tggcttgttg ttaataaata atgtncagct tggttcaagt taagtttata 240 tgtctgcata catgtaaact aatcatgtgt ttgtccgatg caacacctat ttgatatact 300 tttgaattca acctttaata tgtggtttgt ttccactgaa tactatataa tccacctata 360 cttttgaat 369 <210> SEQ ID NO 443 <211> LENGTH: 621 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(621) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 443 cagcgatgtn tcagcattat tattattcat cccgaagcaa ctcaggcgaa gaagcatggc 60 cgccggtgtg gaaatccgtc gaggaatcgc cgcaattctg tttgatccaa ccgtacctgc 120 gtcactggga acttgaagat ttcgatcaca tcgacgattc ggaattcccc ctagctagat 180 ggggtaaaat ctcttggccc gttaaagata acctcaagaa tctaaagagg tttctgcaac 240 aagtgaggga gagcaggggt tatgatgtgg actgcttgcc tccgaaattt atgaactctc 300 ctttcttccc ggcgtcacct gacagactca ggaagtactc gtcgatgttt aaagcagatg 360 agaaaataag atttgcactt gaagaaatca atgcgcaggc tgagaggcat ggggaaaggt 420 ttgaatttgt tgaagttaag catgttgtgg cgtcctgggc gcacggcttc cccttctcac 480 ctttactgtg aaacaagttc catccctgat gatgccgtgg tggagacggt caagcaatgg 540 ttctaagccg catgggcata accagtacta cagctctaaa ttggaaggtc aaccccggtt 600 acacttgtgg cactctccac g 621 <210> SEQ ID NO 444 <211> LENGTH: 392 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 444 acaagatatg atagtataat atcatccata actattgtat gaaatcataa taagatgcca 60 catataacaa aaatatatgt tgccaaagac agaaaatcac actcgataaa ttcaaataca 120 tagttaaata tgcagaaggc tcttgaactt gaacctgaac ttaattatta catgcataaa 180 aattgaatag ttcatccata aacgacgaca gactctccct tgtgctcacg tggtggcaaa 240 tgccacgttg tttgagccga ttctccttat tccatttggt gcttgaagaa ttacaaacta 300 tgccttcgaa aaactttggt ataatttaag taagtaaacg atgggtcatc atcatcatct 360 ctcatgcaaa gggctcgaat aaggttctgg tc 392 <210> SEQ ID NO 445 <211> LENGTH: 552 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 445 gagacagcga ttttgggatg ctggtccgat tagtcatcgt gttctcgaac ctaacaatga 60 acatggtaag gaaaaacttt gatgaaagta taggagcctc catcaagaag ctgactggaa 120 ggaaggatga agaacttgca aaaatggtta tgggagaagc atctgataat ataaagctaa 180 aagcaggttc cataattgag atatcaaggc ttcaaggatt cacactccaa actaaagtca 240 ggggtgagat tgtcagcaca gttcaaagtg aagtaatatg cagggcattt gtaaacatgt 300 atttgggaga cgatccattt gacaaacaag caaaggaaaa ttttgggaca gctctacttt 360 ctatgttcta aaaaggactg tgttatgaaa ctagatacgt aagtgcatag cactaaagat 420 ctactccata gctaatagca gtttctaaat aagtgaaaca tcatgaatat tcatgaagct 480 ttcatattat catcgggaat atgttttacc tgcttattca tgccctaatc cagaaatgca 540 cccctctagt tt 552 <210> SEQ ID NO 446 <211> LENGTH: 278 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 446 taacaatctc cactcctttg gaaaccaggt agcttttgca gttatcaatt gtttcaccac 60 ctctctcttc ttcttcttct tcttcttctt catctgtctc tctctctctc tctcacccac 120 acacacacac acacgcacta aagtaagtga aatggctgca tcatgctatg gaatgtctgc 180 aatttcatgt gggagcccgg ttgctacaag gggtggcatg actcaccttc tcggagcttc 240 taggtttgct cttcctttga acagagatgc caagttta 278 <210> SEQ ID NO 447 <211> LENGTH: 620 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 447 gtcaataatc tgctcggatt ggacgatgaa ttcggcggga aggcggcgga gaaagatgcc 60 gacctcaaaa tggagaggtc aaaaattggg ggcgctgcta acggaatcgc tcatggcaat 120 tacgtcatta atcaggacgt gcactctgtt ccagattctc cgatgctcga tacgacgtcg 180 tccttcggtt ccgcctcgag ctctccgtcc atggcgaatt tgccacctat tagggtgcac 240 gtcgaggaga atcgcaaggt cggagggttg ggaattgaag agcagtttca gcagatgagc 300 gttggagctg ccagagatga taatccaccg gcgcagaagc aggatgaaga aagtgtgttc 360 atggccgccg gcgtctctgt gggggacggc ggctccaccg ttgccggtag tggttggtgg 420 cgaataccgg ttgatttccg acgatgaaag atcggatcac ggcgggcaga gaaagatgca 480 acacgttcat ctagcacagc agcagattgc taattttcag cagaaacaag caaatgcctt 540 ccatttgcct ccccaaattc ctttcaagtg atggaattgt tccaatccat tgtttaaaca 600 gaagcagcta tttatcctcc 620 <210> SEQ ID NO 448 <211> LENGTH: 618 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 448 tccttaccag ttatcaatcc tcacgttttt ctaggaaaac tcccctctcc ttcctcttcc 60 ttttcattca accttcattc tctctctttc tctaattccg cccctttttg ttgatagaac 120 cgaaaaatct gatctttgag ctcgtttcag ccgattccgt taattcgaag caatcccttt 180 tcccactttg attaaatctt tcttcccatt ttgcagttga agttgtttta tcggaggttc 240 tttgattcaa ttgtcgatcg gattgcagta acagcaatat atatagaatg accgcatacg 300 cggcggcgtg tagacgggtg ctccggttag gaccgggttc gccgcgaccg accatttccg 360 agctcgcaaa atccaatggc aaaagggtct acctcgtcca aactttgggc cttgtgaaga 420 aactagaagc acagggggtg gagtcaaaca agcgcagggg ataacagaag cgatgatgga 480 gtgttgaatg aaacatggaa aacgttctgg tcgtatgttt ctaaaaatga aatgcaaaag 540 agtgagattt tccaggaaaa caactttcca tgttcaaaac gaagtcaaaa actctcagga 600 taccatttct ctatgtgc 618 <210> SEQ ID NO 449 <211> LENGTH: 285 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 449 aatgtgtaaa gctaataagt gtctttatcc agcatgatgg gcctttggtg caagtctgag 60 gctttgactg agtgagagtt ggggattgtc tcgctgtccg ttttgctttt gtttcggaat 120 tgtctgtaat cttattattc atactgtctt tctttttgtt ctactactac tactactacg 180 tctaggaata ctattggcac atgagaatga atgatgaaca cttgttttga tcacttgtta 240 tgaggatgga ttcatattcc tatttatttt cagtgaaatt atttt 285 <210> SEQ ID NO 450 <211> LENGTH: 410 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 450 cagaggtgtg cttcaccgag atggctcggt tctgatgtca gttactctgg atcagttgaa 60 ggcacctgaa ttgctgtaca agtctcttgc aacaaagctt attgttggaa tgccatttaa 120 ggatctggca actgtggact caatccttgt tagagaactt cccccacaag atgataaaaa 180 tgctagattg gctctcacaa ggctgattga cattagcatg ggagtaatta ctcctttatc 240 agagcaactg acaaagccac tacccaatgc attggccctt gtaactctca aggaattatc 300 atctggtgct caccagcttc ttccagaaag tacacgtatg gtagtctcat taccgttggt 360 gatgaacccc aagcaaagag ttgggaaaat tctccaccac gaattgatgc 410 <210> SEQ ID NO 451 <211> LENGTH: 418 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 451 ggaagaagaa gctctcgaac aagtcgtcca tttcttccaa tccaaatact tcaacaaaga 60 ctgtgtcatc actttttatt tccccgctgc tgctccatct actgcacaaa ttgcatttgc 120 tacggagggg aaagaggagt cgaagatgga ggtgaagaac gcgaacgtgg cggagatgat 180 acagaaatgg tacttgggcg gaagccgtgg agtttctccg accaccgtct cctccctcgc 240 cgccactctc tctgccgagt tatcaaaatg atgaattgta cttttattca gttaagaaaa 300 atgtaattgg attgcggttt gttcaacatt gcattgcagc cccttgaaag caagttcccc 360 ctaatgtttt tataaataaa ttgtttcctc tagcgaaata tgtgattgaa tgcccatt 418 <210> SEQ ID NO 452 <211> LENGTH: 628 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(628) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 452 cttggttggt ntcagcttct agtgatggga agatttcact tatcgatgtg aggaagctgt 60 tgaagaccag cagaatttca tctactggaa ggatttctaa aggtagcaac ttggacctca 120 agaatgtgga gcccccacag agaatgctac atgggtatgg atgcaatctc ttctctgtgg 180 gtattggttc tgatcgaatt gtttgtggtg gtgaagatgg cgttgtgagg atatggaact 240 tttctcaagc tctggagatt gaacagagaa tccagagtat gaaaggtata aggcttgaga 300 atcggatgag gcgtcgtaag ctccaagttg agatgagcag taaagggagt caaggtgagc 360 agtgttctac agctgcaaag aaaaaccaga ttagcagtga taagaatggc tggcatagca 420 agcgcagagt atggaaggtg aaagcgtagt ttctgattgt ttttatgtcc ttatcatctc 480 tagtattaat tgaataggca tagtttgatt aacttttgta gttttccagt tatctattga 540 atgtttagca tttgaaattt cctcttaaca accccctcta tactcccttt gagatttctc 600 ctggattatt cctctcttta ctctggca 628 <210> SEQ ID NO 453 <211> LENGTH: 237 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 453 cggcacgaga tttcatctcc ctctctctct ctctagaatt tcttgatagt tgtaatttgt 60 gggtacgaaa ttctgatgcg cagctgagtt gtaacgttct tgaagaaaag tagcgttgtg 120 aatctttgag ttatgggaga agcggcggcg aataaggggg ggactctcaa tggattctct 180 ccggtttctt ctgctcctgt tttctggaaa tcaaggaaaa gattttctgc cactgcc 237 <210> SEQ ID NO 454 <211> LENGTH: 556 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 454 tgagcatcgg tatccgtgtg cttatgatga tggatggaca gctctaaatt gggtcaattc 60 aagaaaatgg cttcatagtg ggaaggacga tgatcataag gttcatatat atctagctgg 120 agatagttcg ggtggaaata ttgctcatca tgtagctgtg agagctgctg aggaaggcgt 180 cgaagtatta ggaaacattc ttctccatcc tttattcgga ggggaggaga ggacggaatc 240 cgagaaaaga ttggatggga aatactttgt cagaattcaa gaaagggatt ggtattggag 300 agcttatcta cctgaaggcg aagataggga tcacccagct tgtaatgtgt tcgggcctag 360 gagtccagct cttgaagtga taactttccc aaagagtttg gttgttgtac tggattggat 420 cttcttcaag attggcaaat tggttatgtc gaagggctca agaaattccg tcatgaggtg 480 aagctactct acctccaaaa ggctacaatt ggattctact tcttgcctac aatgaacatt 540 cgattcttta atggtt 556 <210> SEQ ID NO 455 <211> LENGTH: 265 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 455 ctcgtgccgc aaacagtggc atgttgaagt ctactaagca attattaaaa cagatccctc 60 atttagatta ttgtccttct atttatggaa tgttgttgca ttcctcttgt tgaaacagat 120 gttggattta agattatttg tctgtaccat tttgttgatg gagaaagcat tactggatat 180 ttgtttgaag acctgcccat ctgtgtttcc tttgtttttt tccccccatt ttggtgaata 240 aatagagttg ggaattaaca agttt 265 <210> SEQ ID NO 456 <211> LENGTH: 214 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 456 cttctgagaa tcaagccttg cttgaggcag ccagagagtg accggaaaag gctcaacctc 60 aaggtgactt tttccgattt cgagcattca gagaggattt ccatgtaaaa ccactcaaat 120 tttgcttgaa catcaaactt tagtcattct tttaggcagt ttttggggaa catatatttt 180 tctttttttt ctttcttttg aggggggggg gggg 214 <210> SEQ ID NO 457 <211> LENGTH: 427 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 457 ctagaacgta taacccacgt ggtggattcc cctcacaatt cgttgcttgc tcctgagcca 60 cagactacct ttgatgaagt gatgattctc accgaatcac tgactcgcac acacacagtc 120 acagactctc agaagaagaa agaggagaga aggtgattga ttacttaaat atcaaatggg 180 ctctcaaatg ttaaaaatct cacctttcgc agcttctcga acgtttattg ccggcgcccc 240 cgctctcgca agccctgaag cccccaactg tcgaataatt aagtttggca gctatttggc 300 gggtgaattt tgtgggttga ctctgaatca cggaaagaag ggtttcccat tcggagtttt 360 ggcaatggct gctacccatt ccggtgcaga aatctgaaga ggagttggcg cgcctattct 420 gtttcat 427 <210> SEQ ID NO 458 <211> LENGTH: 245 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 458 ctcgtgccgg gaagttataa gttcttcacg ggaggcaaga aggacaaaga agagaaagta 60 gtggaagcag caaaataggc tggagtttcc aggcattgcc attgttttct tctaataata 120 tgtgcttcaa cttattgttt gtatgaagaa agttcatctc tacctgattt ccacaatcat 180 tgagaatatt cagctacctt ttgttagctt tttttggagg aagaatgagc cttttttctt 240 tccct 245 <210> SEQ ID NO 459 <211> LENGTH: 420 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 459 tgcagtttgg taggtccgaa aaatttctaa actattgact gttattggtg gattcttgat 60 aaagaccgaa cgatacattc aattccataa agtggagtta tttatttagt ttaagagtat 120 agtaattata atatttaaga aagacctcac aatttacaaa tgttcatgca atttattaaa 180 ggggcccatt gtcaccggcc ctagccacgt gtcacatcaa tccccttcct ctcatagtat 240 gaaaactatt gatgttttta tttgaattga tagatttgaa gtcccaattt taatgttaaa 300 acctcgtatt tcaatacgtt tcgaatgttt ccaaatttca acttacagta attctttaat 360 tcatcctctt cttttcataa gcaaaatcgt tttaattatg ttttactatc caattatcgc 420 <210> SEQ ID NO 460 <211> LENGTH: 298 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 460 aaactgcaac ttattgtaga atatattcga tcatacttac tacaagaagt agattaatta 60 tctgcgaaac ataagacact ctcatcaaat aactttcttc ataatacaat tattcaactt 120 cctcaactcc taaatgtcat cgttaatgct tcaagtggtc gaacaaccac cgcggaataa 180 gggtgttcta aaccattggc cgattctgaa tggcctcctt cttccgtcac ctcgtgggcg 240 ggagacaaaa tttaagttag tctgaacaaa tgccctgttg ttcctgcccc ccgaagaa 298 <210> SEQ ID NO 461 <211> LENGTH: 463 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 461 aacacagggg atttcttgta agttttccaa aacacagggt attatcttgc agtttacccc 60 aatttaattt gtagagtatt gaatcgtttc tttttcttca attcttcttt catttattat 120 aggtacctcg tttgaacaac gataattttt tatgaattca ttgattattt atttcaacga 180 aactgttagc tcgacggtgg agcaatttaa ttaagaatac tcatttttca atataaaagt 240 ttcttgattc tatttatttt tcctaaaact taatggcttt gatgtaatag tgtatatata 300 tatatatatt ttttttgaac taatgacata tgttatgatg tgttgcggat ttaattggcg 360 cgtatagtat tattattatt tttttcaacg aatggcatat attatgatgt gttgcggatt 420 taattggtgt gtatagtata tgtatcaagt gtgtattctt taa 463 <210> SEQ ID NO 462 <211> LENGTH: 290 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 462 ggagctaagg tgaccaaagc tgcagctaag aagggagtca agtgaagaat ggagcttcta 60 tttactttca gtttatttat ttaccgcaag agatacttgt tttgttttcg tactactgct 120 tttgtttggt ttgtttgttg cgtctgttgg tctttgttgt gcgattttgg ctctcagagt 180 tgggtgctgg atcgtaggtg gcgtcttata tttatgactt cgcttctatt aatttatgaa 240 atttgagttt tcgtcggtta ttttgtgatt ttgttttaag atttaaggtt 290 <210> SEQ ID NO 463 <211> LENGTH: 346 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(346) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 463 gttaaagcgt gaggaagtat tgctatcggc ttaaagattg cattgattag ttcaaatcca 60 gtggatgcac tcgatgatta ggtccgtgga ttaagcaagg gtagcgtatc ttgtttcttt 120 gctccttgta aactataatg ttgtatttat gagtatataa cattatccta agtacgaata 180 catcctattc ctattatggt ttgataataa ggaaaattta gtgttgagat gtnagagaag 240 tgtnatacca tataccctgc gctttgtggc tgtagaagca ggagtgttgt tctcagttcc 300 aacaggactc tgtgctttaa taataaggct ccataatctc ttgctc 346 <210> SEQ ID NO 464 <211> LENGTH: 493 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 464 ggatccctcc aaaagactct aaagcacaca aactctaaag agaaagaact gaactgggct 60 agttcgagat ttcttcatgg gaagaactag caagaaaccc atacggtcca aagacacgaa 120 atcaaaccag ttcaaaagaa aactgcacaa aagaaactaa agaagaaaac taaatatact 180 cagctttgag aactctaaag cgctcaaagg aaaagtcact ctcagcacga acccatagtt 240 gcacagaagc aacaccttta agaggcaaac caaaatacaa tgcccattgc aagatgtttg 300 catttcgaaa atattgcgat aggttcgcaa ccagagagtg gggagtaacc aaaagggaca 360 gaaatcctta cagaaaaaac aatccccccc aaaccggaaa ttaattcccg tttctcccat 420 ttgctttatt ccgaataaac ccaagagtcc cttccatttt gaattggttt taaagcacac 480 aatttgcgcc gcc 493 <210> SEQ ID NO 465 <211> LENGTH: 452 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 465 cttcaagttg caaagaagaa gttggataat atgctttatg ttggtttgac tgaaaaccat 60 aaagaatcag ccaatatgtt tgcaaatgta gtcggtaccc aggtgatttc caagcacaaa 120 gtatcaagct ccgattcaga tggtgctggt aacaagtcag aaaagggctc ccagcttctt 180 agtacgaaga ccgatgctaa tgataaagat gagaatacta atcccaatct gaagaatgtg 240 tcgtcaactg gaacggataa tgcggtacag gaaaatatga ctgtggggaa actgatggaa 300 gcatacaatt cttgcgtttc tccattaaga aactctcaaa cagataggcg tgcgaactct 360 ctgaagcaaa ttcatcccgt gaactttaca aaggaggctc gtaagcaggt gccccagggc 420 cttcttaagg agataacatc actccgcggc ct 452 <210> SEQ ID NO 466 <211> LENGTH: 295 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 466 caaaaaggca gatgctcaga agattgttga agatacacaa acttctgcag cttatagaac 60 tccacgagtt gggaagagtc ccgtcatgag atcgagcccg ggaacagtta ggtgatgtat 120 aggtcaattt acggcgggtg gtatcatttt gtccatatta gatcttgtgc aaaagacttt 180 gtatagtgta tctttttttt tattgatgta aatcttgata tatcaactaa gcttgtaaat 240 gttgtgaatt aaagtaagca agaaagtatt ctacagtgtg tttctagagg atctt 295 <210> SEQ ID NO 467 <211> LENGTH: 202 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 467 aacgaacaga agtacttcac cgccttccgc ccccacccca tgcagcacct cttccgctcc 60 tacaagccca tgaccgcgcc gtctggcgtg ctgccgccgc cgccggccgt cgacgagtct 120 aaggcgatgc gtcagccggg attcctgaag ccggaagcgc tgatgcgatt cctgtgggcg 180 atggacatga tcactctgct gt 202 <210> SEQ ID NO 468 <211> LENGTH: 296 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <220> FEATURE: <221> NAME/KEY: misc_feature <222> LOCATION: (1)..(296) <223> OTHER INFORMATION: Wherein N=an unknown nucleotide <400> SEQUENCE: 468 gaanaaggac tatatcaaga ttcatggttt ctgaagtgca gcatcctatt cataccagcc 60 tcttatctgt atgatctatg atatgttcaa actattataa gtgaactttg ttgtatgctt 120 aagttcttct gatacctacc tatttgtttt gctacaagtg tcatgtttga tgtcgaatca 180 gctttttcaa gtgcaaatgg attcaaataa cagcgacatt cttttgaatg ccgtgaactg 240 tgctttagcc catactgttc gtttcttatc ccgtttctat gaattcaatt ttcttg 296 <210> SEQ ID NO 469 <211> LENGTH: 427 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 469 gaaacctcaa cctcaacctc aacattgttc tttcttttgg ctattcacga ggcgaagatg 60 gttctgccca tctggaatcg agcttaagcc ttcttccggg gaagacagtg ccgacactct 120 cgaggggttt gttctacttc atgtttctat gggtcctcat gctctccatc agctacaaaa 180 taaggagctg tatatgtgct aagtaaatta tcaaggggac gggcccctaa cactaatacc 240 gccgcgttag caaagaaaga tctcatttgc ttctgtcgaa atagaatttt aggatacgaa 300 taggaaattt taagtcgtga aagcagcgtg attctgatca tactttcgag tactgttatt 360 gaaagttatt ggtgaactaa attgtctatt atcagttata attgtgactt tatttatctt 420 tgaactg 427 <210> SEQ ID NO 470 <211> LENGTH: 366 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 470 cccatgaaaa catacaagtt ttatttatat attgtataca aaagtacatg gatgtagata 60 atgaagatat cacaagcttc gttcctcacc ctatatggga aatataattc tccgaagcta 120 caaatacatt atacatacat atactttgaa ctatctaatt agtgcagatg aagaaacaga 180 tctccattgc caaaacctag ccagctttaa tttcttgaag aaggtcgctg caaatcacct 240 gtacctttta ctatagcaac aagcttagtt actaaataca gagatattat ttatttattt 300 attattatta tttagtaata caaacatttt tccaattacc atttatttat ttcgaggtaa 360 tgactt 366 <210> SEQ ID NO 471 <211> LENGTH: 623 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 471 ttttgtcctt gttattgttg aatctccatt tttgttgcta tgaattgaga tcaatttgat 60 ctacatcgat gattctttgc actggctttt ccttaccttg tgtttcgttt cctatggttt 120 ggtctttgtt tcaaattgga attggtggcg tttatttgat tcttccctgt gatgttagaa 180 ttggagtatt agttgagact ttgctctttc ttttatacgt ttgttcggtt tctttgccaa 240 ctcagtttga tgaggatgat tcttcttcag ttccatactt aattttttgc tgaatttgca 300 agttcatctt tgctttattt atttttttat tttataaatt ttgccatgct ctgtgatgat 360 gaactgatgt ttccgtttct ttatcttgtt ggttcgtgtt tcttccatgt ggttccgatg 420 tcgatgattc tctccgatag ttctattctg tacggttcga atcgaattag ttgctaatta 480 tttgtaagca tgtgttttac tttgtcattt ttatgtaaat tttgtggtaa tgaatgtcac 540 agttcttcac attaactgat gtgccctgct taacgtttgc ctcttgcatt tcactctgtc 600 ttgttcctta aggtgtactg tta 623 <210> SEQ ID NO 472 <211> LENGTH: 328 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 472 ctcgagggcc ctcgttgttg gtggggcact cgccctcgcg tgcacactcg acagggggct 60 tctgaccaaa gctgtgatct ttggggtggc aagaaagttt gcaagaacgg ggcagaggtt 120 atgacctaat taaagggtaa aggcatgatt cgttgaaaat ttgtggtttg attaagagct 180 gcaaaataag aggcagattc cattcttttt acatttcgtg tttcttcttc atgtactgat 240 gatactggca tatagttcat ttattttcag atatgatgat gatttttcta attaacagat 300 ttatacggaa tataatgctt cagctctc 328 <210> SEQ ID NO 473 <211> LENGTH: 52 <212> TYPE: DNA <213> ORGANISM: Mentha piperita <400> SEQUENCE: 473 ccagtgagca gagtgacgag gactcgagct caagcttttt tttttttttt tt 52 

1. An isolated nucleic acid molecule that hybridizes under stringent conditions to a nucleic acid molecule consisting of a nucleic acid sequence selected from the group of nucleic acid sequences consisting of SEQ ID NO:1 through SEQ ID NO:472, or that hybridizes under stringent conditions to the complement of a nucleic acid molecule consisting of a nucleic acid sequence selected from the group of nucleic acid sequences consisting of SEQ ID NO:1 thru SEQ ID NO:472.
 2. An isolated nucleic acid molecule of claim 1 that hybridizes under stringent conditions to a nucleic acid molecule consisting of a nucleic acid sequence selected from the group of nucleic acid sequences consisting of SEQ ID NO:29, SEQ ID NO:17, SEQ ID NO:21, SEQ ID NO:66, SEQ ID NO:60, SEQ ID NO:4, SEQ ID NO:7, SEQ ID NO:8, and SEQ ID NO:9, or that hybridizes under stringent conditions to the complement of a nucleic acid molecule consisting of a nucleic acid sequence selected from the group of nucleic acid sequences consisting of SEQ ID NO:29, SEQ ID NO:17, SEQ ID NO:21, SEQ ID NO:66, SEQ ID NO:60, SEQ ID NO:4, SEQ ID NO:7, SEQ ID NO:8, and SEQ ID NO:9.
 3. A replicable vector comprising a nucleic acid molecule that hybridizes under stringent conditions to a nucleic acid molecule consisting of a nucleic acid sequence selected from the group of nucleic acid sequences consisting of SEQ ID NO:29, SEQ ID NO:17, SEQ ID NO:21, SEQ ID NO:66, SEQ ID NO:60, SEQ ID NO:4, SEQ ID NO:7, SEQ ID NO:8, and SEQ ID NO:9, or that hybridizes under stringent conditions to the complement of a nucleic acid molecule consisting of a nucleic acid sequence selected from the group of nucleic acid sequences consisting of SEQ ID NO:29, SEQ ID NO:17, SEQ ID NO:21, SEQ ID NO:66, SEQ ID NO:60, SEQ ID NO:4, SEQ ID NO:7, SEQ ID NO:8, and SEQ ID NO:9.
 4. A host cell comprising a vector of claim
 3. 5. An isolated nucleic acid molecule of claim 1 that hybridizes under stringent conditions to a nucleic acid molecule consisting of a nucleic acid sequence selected from the group of nucleic acid sequences consisting of SEQ ID NO:10, SEQ ID NO:11, SEQ ID NO:12, SEQ ID NO:13, SEQ ID NO:14, SEQ ID NO:15, and SEQ ID NO:16, or that hybridizes under stringent conditions to the complement of a nucleic acid molecule consisting of a nucleic acid sequence selected from the group of nucleic acid sequences consisting of SEQ ID NO:10, SEQ ID NO:11, SEQ ID NO:12, SEQ ID NO:13, SEQ ID NO:14, SEQ ID NO:15, and SEQ ID NO:16.
 6. A replicable vector comprising a nucleic acid molecule that hybridizes under stringent conditions to a nucleic acid molecule consisting of a nucleic acid sequence selected from the group of nucleic acid sequences consisting of SEQ ID NO:10, SEQ ID NO:11, SEQ ID NO:12, SEQ ID NO:13, SEQ ID NO:14, SEQ ID NO:15, and SEQ ID NO:16, or that hybridizes under stringent conditions to the complement of a nucleic acid molecule consisting of a nucleic acid sequence selected from the group of nucleic acid sequences consisting of SEQ ID NO:10, SEQ ID NO:11, SEQ ID NO:12, SEQ ID NO:13, SEQ ID NO:14, SEQ ID NO:15, and SEQ ID NO:16.
 7. A host cell comprising a vector of claim
 6. 8. An isolated nucleic acid molecule of claim 1 that hybridizes under stringent conditions to a nucleic acid molecule consisting of a nucleic acid sequence selected from the group of nucleic acid sequences consisting of SEQ ID NO:107, SEQ ID NO:111, SEQ ID NO:102, SEQ ID NO:10, SEQ ID NO:86, SEQ ID NO:76, SEQ ID NO:81, SEQ ID NO:80, SEQ ID NO:95, and SEQ ID NO:97, or that hybridizes under stringent conditions to the complement of a nucleic acid molecule consisting of a nucleic acid sequence selected from the group of nucleic acid sequences consisting of SEQ ID NO:107, SEQ ID NO:111, SEQ ID NO:102, SEQ ID NO:110, SEQ ID NO:86, SEQ ID NO:76, SEQ ID NO:81, SEQ ID NO:80, SEQ ID NO:95, and SEQ ID NO:97.
 9. A replicable vector comprising a nucleic acid molecule that hybridizes under stringent conditions to a nucleic acid molecule consisting of a nucleic acid sequence selected from the group of nucleic acid sequences consisting of SEQ ID NO:107, SEQ ID NO:11, SEQ ID NO:102, SEQ ID NO:10, SEQ ID NO:86, SEQ ID NO:76, SEQ ID NO:81, SEQ ID NO:80, SEQ ID NO:95, and SEQ ID NO:97, or that hybridizes under stringent conditions to the complement of a nucleic acid molecule consisting of a nucleic acid sequence selected from the group of nucleic acid sequences consisting of SEQ ID NO:107, SEQ ID NO:111, SEQ ID NO:102, SEQ ID NO:110, SEQ ID NO:86, SEQ ID NO:76, SEQ ID NO:81, SEQ ID NO:80, SEQ ID NO:95, and SEQ ID NO:97.
 10. A host cell comprising a vector of claim
 9. 